This is a modern-English version of The Business of Mining: A brief non-technical exposition of the principles involved in the profitable operation of mines, originally written by Hoskin, Arthur J. (Arthur Joseph). It has been thoroughly updated, including changes to sentence structure, words, spelling, and grammar—to ensure clarity for contemporary readers, while preserving the original spirit and nuance. If you click on a paragraph, you will see the original text that we modified, and you can toggle between the two versions.

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Utah Copper Company's Open Pit Mine

Utah Copper Company's Open Pit Mine

Utah Copper Company's Open Pit Mine, Bingham, Utah.
This Mountain is Copper Ore.

Utah Copper Company's open-pit mine in Bingham, Utah.
This mountain is made of copper ore.

THE BUSINESS
OF MINING

A BRIEF, NON-TECHNICAL EXPOSITION
OF THE PRINCIPLES INVOLVED IN THE
PROFITABLE OPERATION OF MINES

BY

ARTHUR J. HOSKIN, M.E.,

CONSULTING AND GENERAL MINING ENGINEER; WESTERN EDITOR, "MINES
AND MINERALS"; FORMERLY PROFESSOR OF MINING, COLORADO SCHOOL
OF MINES; MEMBER, AMERICAN INSTITUTE OF MINING ENGINEERS;
MEMBER, COLORADO SCIENTIFIC SOCIETY

CONSULTING AND GENERAL MINING ENGINEER; WESTERN EDITOR, "MINES
AND MINERALS"; FORMERLY PROFESSOR OF MINING, COLORADO SCHOOL
OF MINES; MEMBER, AMERICAN INSTITUTE OF MINING ENGINEERS;
MEMBER, COLORADO SCIENTIFIC SOCIETY

WITH 16 FULL PAGE ILLUSTRATIONS AND ONE CHART

WITH 16 FULL-PAGE ILLUSTRATIONS AND ONE CHART

 

Publisher's Logo

Publisher's Logo

PHILADELPHIA & LONDON

J. B. LIPPINCOTT COMPANY

1912

 

COPYRIGHT, 1912, BY J. B. LIPPENCOTT COMPANY
PUBLISHED JULY 1912

COPYRIGHT, 1912, BY J. B. LIPPENCOTT COMPANY
PUBLISHED JULY 1912

 

PRINTED BY J. B. LIPPINCOTT COMPANY
AT THE WASHINGTON SQUARE PRESS
PHILADELPHIA, U.S.A.

PRINTED BY J. B. LIPPINCOTT COMPANY
AT THE WASHINGTON SQUARE PRESS
PHILADELPHIA, U.S.A.

CONTENTS

CHAPTER PAGE
  Intro 1
I. What’s a mine? 4
II. What is mining? 12
III. The History of Mining 22
IV. Mining's Role in Business 28
V. Finding Mines 39
VI. Mining Claims 46
VII. Location 60
VIII. Open Mining 72
IX. Factors to Consider Before Opening Mines 78
X. Mine Entrances 93
XI. Types of Ore Deposits 107
XII. The Issues of Depth and Ore Grades 115
XIII. Valuing Mining Property 129
XIV. The Mining Promoter 134
XV. Incorporation and Funding 140
XVI. Mining Investments 148
XVII. Mining Equipment 154
XVIII. Mining Management 162
XIX. Metal Prices 170
XX. Mining Accounting 179
XXI. Investing in Mining Stocks 185
XXII. The Future of Men in Mining 202
XXIII. Miscellaneous Thoughts 210
  Capitalization and Dividends of North American Metal Mines 216
  Index 220

ILLUSTRATIONS

  PAGE
Utah Copper Company's Open Pit Mine, Bingham, Utah Frontispiece
Hacket Mine and Mill, Joplin, MO. 12
Coal Washing Facility, Pana, Illinois 17
Universal Mine, Clinton, IN. 20
Kennedy Mine, Jackson, CA. 31
A scene from Gilpin County, CO 53
Dredges of Yuba Consolidated Goldfields, Hammonton, California. 66
The Snowstorm Placer, Fairplay, CO. 70
Steam shovels and churn drills, Copper Flat, Ely, NV. 74
Mill of the Pittsburgh-Silver Peak Gold Mining Company, Blair, Nevada. 88
Mills and Shaft House of Daly West Mine, Park City, Utah 100
Shaft No. 3, Tamarack Mining Company, Calumet, Michigan. 114
Smeltery of the Balaklala Consolidated Copper Company, Coram, California. 114
Washoe Reduction Works of the Anaconda Copper Mining Company, Anaconda, Montana. 119
Mill of the Roodepoort-United Mines, Gauteng, South Africa 148
Spray Shaft House of Copper Queen Consolidated Mining Co., Bisbee, AZ. 161
Diagram of the Metal Market for 33 Years 178
Florence Mine and Mill, Goldfield, NV. 201

 

 

THE BUSINESS OF MINING

 

INTRODUCTION

There is probably no line of human activity that is not beset with malicious and ignorant intruders. The fact that any occupation or business is really legitimate seems often to stimulate the operations of these disreputable persons.

There’s likely no area of human activity that isn’t plagued by malicious and clueless intruders. The fact that any job or business is truly legitimate often seems to encourage the actions of these shady individuals.

Mining does not escape the application of this postulate. For ages, the industry has afforded most fertile opportunities for the machinations of the unscrupulous and the erring. Somehow, there weaves throughout the history of mining a sort of magnetism rendering us unduly susceptible to the allurements which are presented with every mining proposition.

Mining isn't exempt from this principle. For a long time, the industry has provided plenty of chances for the deceptive and the misguided. There's a certain magnetism in the history of mining that makes us overly vulnerable to the temptations that come with every mining proposal.

It is not, however, always intentional deceit that is perpetrated upon the unwary. Often, mining failures result from actual ignorance of the business upon the [2] part of those entrusted with its conduct, or if not from actual lack of knowledge, then from erroneous conceptions with the consequent misapplication of honest endeavor. A victim of such misplaced faith is perhaps more leniently inclined than is the person who has been duped by a "shark," but the effect upon the great industry is hurtful in either case.

It’s not always intentional trickery that catches the unwary. Often, failures in mining happen because those in charge lack a real understanding of the business, or if they don’t completely lack knowledge, they may have misconceptions that lead to the wrong application of honest efforts. Someone who falls victim to such misplaced trust might be more forgiving than someone who’s been scammed by a “shark,” but either way, the impact on the industry is damaging.

The purpose of this short monograph will be served if the author can feel assured that his readers will finish its perusal with the belief that mining may be followed as a business with just as much assurance of success as attaches to any one of the many lines of industrial activity. Many persons who have sustained losses in mining ventures deserve no sympathy whatever, since they have not exercised even the simplest precautions. So long as men—or women—will take as fact the word of any untrained or inexperienced individual concerning investments, just so long will there be resultant financial losses, no matter what the line of business. Because there have been elements of chance observed in the [3] records of mining, this business appeals to the speculative side of our human natures, with the result that untold numbers of individuals have had ample reason to regret their ventures. But, as will be found in the text matter, mining can be relied upon with precisely as much assurance as can any other business.

The purpose of this short monograph is achieved if the author can be confident that readers will finish it believing that mining can be pursued as a business with just as much chance of success as any other industrial activity. Many people who have suffered losses in mining investments deserve no sympathy because they haven’t taken even the simplest precautions. As long as people—whether men or women—accept the word of any untrained or inexperienced person about investments as truth, there will always be resulting financial losses, regardless of the industry. Because there have been elements of chance observed in the [3] records of mining, this field appeals to the more speculative side of our nature, leading many individuals to regret their decisions. However, as will be shown in the text, mining can be depended on just as much as any other business.

Nothing of a technical or engineering sort has been attempted herein, the sole aim of the writer being to establish the reliability and the credit of the mining industry as a whole by pointing out the lines of conduct which should be followed by those who enter its precincts as business people. When investors of small or large means will put their money into mining projects with the same precautions that they would exercise in placing their cash in other enterprises, they will be rewarded with corresponding remuneration. In this firm conviction, then, this little work is dedicated to the intelligence of American laymen in mining matters. [4]

Nothing technical or engineering-related has been attempted here; the writer's only goal is to highlight the reliability and credibility of the mining industry as a whole by outlining the best practices for businesspeople entering this field. When investors, whether they have a small or large amount of capital, invest in mining projects with the same caution they would use for other businesses, they will be rewarded accordingly. With this strong belief, this little work is dedicated to the understanding of American non-experts in mining. [4]

I
WHAT IS A MINE?

Before entering into a discussion of the economic features of the mining industry, it will be well to be sure that we understand, definitely, what is meant by mining. As one investigates the question, he is bound to run across varying shades of meaning for the words Mine and Mining, and so we must pause long enough to define these words according to the best usages.

Before we start discussing the economic aspects of the mining industry, it’s important to clearly understand what we mean by mining. As we explore this topic, we’ll inevitably encounter different interpretations of the words Mine and Mining, so we should take a moment to define these terms based on common usage.

A search through works on mining written at various periods reveals differing ideas that have prevailed among authors. Less than a hundred years ago, it was said that a mine "consists of subterranean workings from which valuable minerals are extracted." One early writer said that a mine is one only when the operations are conducted in the absence of daylight. As time has created [5] new fields for the industry, we find that ideas concerning the meaning of the word mine have necessarily altered, until now (according to The Coal and Metal Miners' Pocketbook), we may think of a mine as "any excavation made for the extraction of minerals." Under this definition, we properly think of the rather unusual operations of marketing coal right from the surface of the earth, in eastern Kansas, as mining. There is, in this case, no covering of earth above the workmen; neither are the operations necessarily carried on at night to avoid the illumination of the sun.

A look through various writings on mining from different times shows that authors have had different ideas about it. Less than a hundred years ago, it was suggested that a mine "is made up of underground workings where valuable minerals are taken out." An early writer claimed that a mine only exists when the work is done without daylight. As time has opened up new areas for the industry, our understanding of the term mine has changed. Now, according to The Coal and Metal Miners' Pocketbook, we can think of a mine as "any excavation made for the extraction of minerals." With this definition, we can properly consider the somewhat unusual practice of marketing coal directly from the surface of the ground in eastern Kansas as mining. In this case, there isn’t any earth covering the workers, and the operations don’t have to happen at night to avoid sunlight.

So, also, placers are now correctly spoken of as mines, although but a few years ago there was drawn a strict line, eliminating such worked deposits from the category of mines. One may still run across a few men who are sticklers upon the point that a placer is not a mine. Throughout the world, at the present time, there are many places where immense deposits of valuable minerals are being excavated from open pits by out-of-doors methods, and our common [6] term for these places is mines. Thus, in Minnesota, in that wonderful Lake Superior country, that is famous as the world's greatest known producer of iron ore, tremendous tonnages are handled every year by the modern steam shovel, which works in natural light by day and by electric lamps at night. In Utah and Nevada we find similar operations conducted in the excavation of copper ores. In Australia, the famous Mount Morgan mine is using open air methods in the mining of precious metal ore.

So, now people correctly refer to placers as mines, even though a few years ago there was a clear distinction that excluded these worked deposits from being considered mines. You might still meet a few people who insist that a placer isn't a mine. Right now, all around the world, there are many locations where huge amounts of valuable minerals are being dug up from open pits using outdoor methods, and our common term for these spots is mines. For example, in Minnesota, in the amazing Lake Superior area, which is known as the world's largest producer of iron ore, enormous quantities are handled each year by modern steam shovels that operate in natural light during the day and with electric lamps at night. In Utah and Nevada, similar operations are underway for extracting copper ores. In Australia, the well-known Mount Morgan mine is using open-air methods to mine precious metal ore.

But what about quarries from which are taken building stone, salt, kaolin or clay? Are not such substances of the mineral kingdom? Here we run across a hitch in the definition quoted above; for while we hear of "salt mines" (not "salted mines"), our parlance has not, as yet, warranted this term except for such excavations of salt as are carried on in subterranean deposits; and it is quite out of place to speak of stone or clay mines.

But what about quarries that provide building stone, salt, kaolin, or clay? Aren't these materials part of the mineral kingdom? Here we encounter an issue with the definition mentioned earlier; while we talk about "salt mines" (not "salted mines"), our language hasn't yet supported the idea of calling places that extract stone or clay as "mines."

Evidently we must pass through another transition in our conceptions about mines, or we must permit quarries and [7] pits to be included within our realm of mines. At the present time, the prevailing practice of the men best qualified in such matters is to designate as mines those workings from which only coal, metallic ores, or gems are extracted. Hence, we should not speak of a slate, sulphur, mica, clay or phosphate mine.

Clearly, we need to rethink our ideas about mines, or we have to allow quarries and [7] pits to be considered part of the mining category. Right now, the common practice among the experts in the field is to refer only to those operations that extract coal, metallic ores, or gems as mines. Therefore, we shouldn't refer to a slate, sulfur, mica, clay, or phosphate mine.

And yet, with all the above restriction in our nomenclature, we have not reached one very important consideration, one which we have been approaching for a number of years and which, of late, has been met and forcibly applied by the best men in the profession of mining engineering.

And yet, despite all the restrictions in our terminology, we haven't addressed one very important point, one that we've been getting closer to for several years and which, recently, has been tackled and strongly advocated by the top professionals in the field of mining engineering.

An excavation that will produce coal, metals or gems is not necessarily a mine. The simple fact that a man can get some gold-bearing dirt from a hole in the ground does not mean that he has a mine. The occasional finding of a diamond on the sidewalks of a great city does not give anybody the impression that city sidewalks are diamond mines. There are many places in which small amounts of combustible coal can be scratched from [8] its natural depository, but no company appears to think highly enough of these seams to install machinery and to carry on operations. In the eastern part of Kentucky there are well-defined deposits of lead-bearing baryta, though, up to date, their development has not proved successful. In Brazil there are known to be very rich areas of placer ground, and still the deposits are not worked. A friend of the writer discovered some very good gold-bearing gravels in Alaska, but he was unable to mine.

An excavation that produces coal, metals, or gems isn't necessarily a mine. Just because someone can dig up some gold-bearing dirt from a hole in the ground doesn’t mean they have a mine. Finding the occasional diamond on the sidewalks of a big city doesn’t lead anyone to think those sidewalks are diamond mines. There are many places where small amounts of combustible coal can be scraped from its natural location, but no company seems to consider these seams worth enough to set up machinery and operate. In the eastern part of Kentucky, there are well-defined deposits of lead-bearing baryta, but so far, developing them hasn’t been successful. In Brazil, there are known rich areas of placer ground, yet the deposits remain unworked. A friend of the writer found some promising gold-bearing gravels in Alaska, but he couldn’t mine them.

There is something besides the presence of valuable minerals and the ability to win them from their natural matrices that is essential to a mine. It is here, in our considerations of the mining industry, that we come into real economic notions for the first time. Yes, according to the latest ideas, we are wrong in stating that any worked or workable mineral deposit is a mine, if it does not contain possibilities of profitable working. This is now the prime thought of every up-to-date mining manager or engineer. It is this notion that will distinguish a mine from a prospect. [9] The prospect may become a mine by proving itself profitably workable: if it simply carries values which cannot be realized to advantage, then it must continue as a mere prospect. There are cases of properties which possess rich deposits and which are loosely called mines. These properties may be observed to be erratic in their productiveness, owing to the very pockety nature of the deposits; and the owners, although they do, indeed, strike occasional handsome bonanzas, expend all the profits of such finds—or even greater amounts—in searching for other pockets. Is such work profitable? Is it mining?

There’s more to a mine than just having valuable minerals and being able to extract them from their natural setting. This is where we first encounter real economic concepts in our discussions about the mining industry. Yes, based on the latest thinking, it’s incorrect to say that any mined or potentially mineable mineral deposit is a mine, if it doesn't have the potential for profitable extraction. This has become the main idea for every modern mining manager or engineer. It’s this concept that separates a mine from a prospect. [9] A prospect can turn into a mine if it proves to be profitable; if it only contains values that can’t be effectively tapped into, then it stays just a prospect. There are instances of properties with rich deposits that are casually referred to as mines. These properties can be inconsistent in their productivity due to the unpredictable nature of the deposits, and the owners, despite sometimes hitting large bonanzas, often spend all their profits—or even more—looking for other valuable pockets. Is this work profitable? Is it really mining?

The trouble with the cited placers of South America is that climatic, hygienic and political conditions have been antagonistic to successful working: the ground is rich, but it cannot be handled to make money. In the case of the Alaska gravels, there was no available, though essential, water supply. The Kentucky galena cannot be economically separated from the containing heavy spar. Coal, which is sold at comparatively low figures per [10] ton, must be handled at the mines in large quantities to pay, so that a thin seam or a scattered deposit is not suitable for mining.

The problem with the mentioned locations in South America is that the climate, hygiene, and political situations have made successful operations difficult: the land is rich, but it can’t be exploited for profit. With the Alaska gravels, there is no available, yet crucial, water supply. The Kentucky galena cannot be economically separated from the heavy spar it contains. Coal, which is sold at relatively low prices per [10] ton, needs to be extracted in large quantities at the mines to be profitable, so a thin seam or scattered deposit isn’t suitable for mining.

Under these restrictions of our new definitions, we run across many interesting points. For instance, one may ask the question about the old abandoned hole in the ground which is occasionally found by prospectors, "Is it a mine?" The answer can be simply another query as to whether the hole was abandoned because it contained no value, or because, containing value, it could not be profitably worked. As we think of mines nowadays, we can conceive several reasons why, before the advent of transportation lines and the invention of modern metallurgical processes and many forms of labor-saving machinery now so common in and about mines, many very rich deposits may have been necessarily forsaken by their discoverers. But such a property would, if now worked, probably prove highly profitable. We thus note that there exists some elasticity in the meaning of the word mine. An unprofitable [11] project at one time may develop into a mine at a later period. Many gold mines have become worthless propositions merely through changes in the ore that have rendered further work unremunerative. [12]

Under these new definitions, we come across many interesting points. For example, one might ask about the old abandoned hole in the ground sometimes found by prospectors, "Is it a mine?" The answer can simply be another question about whether the hole was abandoned because it had no value or because it had value but couldn't be profitably worked. When we think about mines today, we can come up with several reasons why many rich deposits may have been left behind by their discoverers before transportation lines and modern metalworking techniques, along with various labor-saving machinery, became common in mining. However, such a property would likely be very profitable if it were worked now. This shows that the meaning of the word mine is somewhat flexible. A project that wasn't profitable at one time might turn into a mine later on. Many gold mines have become worthless just because changes in the ore made further work unprofitable.

II
WHAT IS MINING?

Having considered the accepted definition of a mine, let us now extend our reasoning a little and inquire just what is meant by mining. At first thought, one would say that mining is, in a broad sense, the art or practice of excavating, at a profit, the ores of metals, the beds of coal, the gravels of placers and the deposits containing precious stones. Are we justified in letting this definition stand as it is? If we do not make any change, we must exclude all quarries, sand banks, clay pits, and the numerous sorts of works that are producing the non-metallic minerals of commerce. Very well, since we find good usage will warrant us, we will do so.

Having looked at the accepted definition of a mine, let’s expand our thinking a bit and explore what mining really means. At first glance, one might say that mining is, in a broad sense, the art or practice of excavating, for profit, the ores of metals, coal beds, placer gravels, and deposits containing precious stones. Are we right to keep this definition as it is? If we don't make any changes, we'll end up excluding all quarries, sandbanks, clay pits, and the many types of operations that produce non-metallic minerals used in commerce. Alright, since we can justify it with common usage, we will proceed with this definition.

Hackett Mine and Mill

Hackett Mine and Mill

Hackett Mine and Mill, Joplin, Missouri.

Hackett Mine and Mill, Joplin, Missouri.

Still, there are other pertinent questions arising. Does the practice of mining cover the treatment of the excavated products? Here we run across a mooted point. The British and the American [13] uses of the word mining seem to be a bit different in this regard. Upon the Rand, South Africa, a territory dominated by Englishmen, every mine is equipped with its own mill, and all notions of mining cover the inseparable idea of local ore treatment. Here, in our country, there are many, many mines which have absolutely no means of treating their own products and the managers give no thought whatever to metallurgical or milling lines. There are, on the other hand, many companies that have erected private plants at their mines for the extraction of metallic contents from the ores. Here it may, or it may not, happen that the operations of mining are considered as distinct from those of treatment. In some instances, as at the Tonopah Mining Company's plants, there is separate superintendence of the milling and the mining; but in the Joplin, Missouri, zinc region one superintendent looks after the running of a mine and its omnipresent mill.

Still, there are other relevant questions coming up. Does the practice of mining include how the excavated products are processed? This is a debated point. The British and American [13] definitions of mining seem to differ a bit in this respect. In the Rand, South Africa, a region mostly run by Englishmen, each mine has its own mill, and the concept of mining always includes local ore processing. Here in our country, there are many mines that have no way to process their own products, and the managers don't concern themselves at all with metallurgical or milling processes. On the flip side, there are several companies that have built private facilities at their mines to extract metal from the ores. In some cases, like the Tonopah Mining Company's facilities, mining and milling operations are managed separately; however, in the Joplin, Missouri, zinc area, one superintendent oversees both the mine and its ever-present mill.

There may be drawn a sharp distinction between what is really mining and what is [14] the subsequent treatment of the ores for the extraction of values. The latter field is denoted Metallurgy when the operations are of such a nature as to actually recover or extract metallic products or metals. If the treatment process has for its object merely the rejection of some of the worthless materials in the original ore, thus causing a concentration of the valuable minerals, but without actually obtaining any metal, then the term Ore Dressing is warranted. At some mines, there is maintained a practice of culling out, often by hand, a certain percentage of the obviously worthless ingredients of the ore before shipping the products to treatment plants. This is neither milling, metallurgy, nor ore dressing, but is more properly called Sorting. It is one of the operations connected with mining. Milling may be either ore dressing or metallurgy.

There’s a clear difference between actual mining and the later processing of the ores to extract their value. The process of extracting metals is called Metallurgy when it involves recovering metallic products. If the treatment only aims to remove some of the useless materials from the original ore to concentrate the valuable minerals without actually obtaining any metal, then it’s referred to as Ore Dressing. At some mines, there’s a practice of manually picking out a certain percentage of the obviously worthless parts of the ore before sending the products to processing plants. This is not milling, metallurgy, or ore dressing; it’s more accurately called Sorting. It’s one of the operations associated with mining. Milling can be either ore dressing or metallurgy.

In the operations of placering, there is a simultaneous excavation of a deposit and an extraction of the valuable contents. In this case, shall we call the process mining or metallurgy? If it is a gold [15] placer, one may see the recovery of the metallic values. Here, the usage of the majority of practical mining men will uphold us in always speaking of the work as mining.

In placer operations, there's a simultaneous digging of a deposit and an extraction of the valuable materials. In this situation, should we refer to the process as mining or metallurgy? If it’s a gold [15] placer, you can observe the recovery of the metal. Here, most practical miners will support us in always referring to the work as mining.

In its original significance and use, metallurgy involved the use of fire for the concentration and recovery of metals. With recent advances in chemistry, there have been numerous discoveries of wet or fireless methods for arriving at equivalent results, so that it is now perfectly proper to allow the word metallurgy to cover such processes as cyanidation, chlorination, electrolysis, and the host of new inventions that are continually appearing.

In its original meaning and application, metallurgy was about using fire to concentrate and recover metals. With recent advancements in chemistry, many discoveries have been made regarding wet or non-fire methods that achieve similar results, so it's now perfectly acceptable to use the term metallurgy to include processes like cyanidation, chlorination, electrolysis, and the many new inventions that keep emerging.

The writer has consulted a number of authorities on mining lines to ascertain just what sort of a position to give to the practice of ore dressing. Prof. Robert H. Richards, the head of the mining department in the Massachusetts Institute of Technology, and the inventor of machines which have made him famous among mining men, says, "Ore dressing is an essential part of mining. The whole object of ore dressing is to remove gangue [16] before shipment and so save in freight and treatment charges." Mr. A. G. Charleton, the eminent English mining engineer and author of numerous books, in discussing this question, writes, "Personally, I am of the opinion that ore dressing should be included in mining." One has but to look through the catalogues of most of the American and foreign mining schools to find that little or no line is drawn between the courses in mining and metallurgy, and almost universally the dressing of a mine's product is taken up as an inseparable part of mining. In a very few exceptions, the courses of study are so planned as to draw an imaginary line between mining and metallurgy, and in these instances, ore dressing is placed with metallurgy only for convenience in the use and arrangement of college laboratories. But, since it is a common practice for mining companies to install plants right at the mines for the purpose of diminishing the bulk of ore shipped and to thus save in freight and custom treatment charges, mine superintendents and even the common [17] miners have become accustomed to thinking of such plants as but units of the "mining" plants. At bituminous and anthracite mines whose products contain objectionable amounts of impurities, it is a common practice to subject the output to a Washing to remove the deleterious substances before shipment to the market.

The writer has consulted several experts on mining to determine the appropriate role of ore dressing. Professor Robert H. Richards, the head of the mining department at the Massachusetts Institute of Technology and the inventor of machines that have made him well-known among mining professionals, says, "Ore dressing is a crucial part of mining. The main goal of ore dressing is to eliminate waste material before shipping, which saves on freight and treatment costs." Mr. A. G. Charleton, a prominent English mining engineer and author of numerous books, shares his view by stating, "I personally believe that ore dressing should be included in mining." One only needs to look through the catalogs of most American and foreign mining schools to see that little to no distinction is made between mining and metallurgy courses; almost universally, the processing of a mine's output is treated as an essential part of mining. In very few cases, programs are set up to draw an imaginary line between mining and metallurgy, and in these instances, ore dressing is grouped with metallurgy solely for the sake of organizing and using college laboratories. However, since it's common for mining companies to install plants right at the mines to reduce the amount of ore shipped, thereby saving on freight and treatment fees, mine superintendents and even regular miners have come to view such plants as just part of the "mining" operations. At bituminous and anthracite mines where the products have significant impurities, it's common practice to wash the output to remove harmful substances before sending it to market.

Coal Washing Plant

Coal Washing Plant

Coal Washing Plant, Pana, Illinois.

Coal Washing Plant, Pana, IL.

In view, then, of these reasons, it is proper to decide that mining is a term broad enough to cover the operations of extracting coal and metallic ores from the ground and of preparing them for shipment or metallurgical treatment.

Given these reasons, it's clear that mining is a term broad enough to include the processes of extracting coal and metallic ores from the ground and getting them ready for shipment or metallurgical treatment.

Coal is always coal, no matter in what thickness of deposit it is found. It may not be minable coal because in thin seams or because so intercalated with layers of slate or "bone," that the mine's mixture, or so-called "run of mine," is not salable. But with metallic ores, we run across an idea that is occupying the attention of many prominent geologists and mining men.

Coal is always coal, regardless of how thick the deposit is. It might not be usable coal if it’s in thin seams or mixed with layers of slate or "bone," making the resulting mixture, or "run of mine," unsellable. But with metallic ores, we encounter a concept that has many leading geologists and mining professionals focused on it.

What is ore? This is a question to which there have been many attempted [18] answers. There has been an evolution of ideas, with a corresponding gradation of definition. To set a uniform standard of thought upon this point, officers of the United States Geological Survey, a few years ago, proposed the following definition. It must be conceded that this definition, while embodying many splendid features, is not altogether exempt from criticism; but in the absence of anything better, we shall not be very far in error if we use it:

What is ore? This is a question that has seen many attempts at answers. There's been an evolution of ideas, leading to a range of definitions. To establish a consistent standard of understanding on this topic, officials from the United States Geological Survey proposed the following definition a few years ago. It's worth noting that this definition, while containing several excellent aspects, isn't completely free from criticism; but in the absence of anything better, we won't go wrong if we use it:

Ore is a natural aggregation of one or more minerals from which useful metal may be profitably extracted.

Ore is a naturalminerals from which valuable metal can be profitably extracted.

There is, then, no such thing as "pay ore" or "non-pay ore," expressions still quite common among miners and prospectors of the uneducated types. Prof. James F. Kemp, probably America's best-posted writer upon the subject, in an attempt to formulate one acceptable and unchangeable meaning for the word ore, says, "In its technical sense, an ore is a metalliferous mineral or an aggregate of such minerals, more or less mixed with gangue, and capable of being won and [19] treated at a profit. The test of yielding the metal or metals at a profit seems to me, in the last analysis, the only feasible one to employ." This definition eliminates one of the weak points in the first definition, namely, that an ore must be an association of minerals: there are some common ores (as for example, magnetite) which are not associations, but single minerals.

There’s no such thing as "pay ore" or "non-pay ore," terms that are still pretty common among uneducated miners and prospectors. Prof. James F. Kemp, probably the best-informed writer in America on this topic, tries to set a clear and permanent definition for the word ore. He states, "In its technical sense, an ore is a mineral that contains metal or a mix of such minerals, somewhat combined with gangue, and can be extracted and [19] processed for profit. The standard of yielding the metal or metals at a profit seems to me, ultimately, the only practical one to use." This definition addresses a flaw in the earlier definition, specifically that ore must be a combination of minerals: there are some common ores (like, for example, magnetite) that are single minerals.

We now reach certain fundamental concepts which must be accepted by the mining man who desires to be recognized as abreast of modern ideas. Following the publication of Kemp's definition of ore, there was much comment—as was anticipated—with the result that there has been noted a vacancy in scientific matters and it has been thought proper to permit another definition for purely scientific uses. This other definition of ore will cover the materials or aggregates of minerals from which gem stones and other valuable, but not metallic, substances are recovered.

We now come to some basic concepts that must be accepted by anyone in the mining field who wants to be seen as up-to-date with modern ideas. After Kemp published his definition of ore, there was quite a bit of discussion—just as expected—which led to a gap in scientific understanding. It has been deemed appropriate to allow for another definition specifically for scientific purposes. This new definition of ore will include the materials or groups of minerals from which gemstones and other valuable, but non-metallic, substances are extracted.

Let us recapitulate. An ore must be an aggregate or association of natural [20] minerals, or a single mineral, from which metal may be profitably recovered. Mines are excavations in the earth from which ore, coal or gems are taken. Mining is the art or practice of operating mines.

Let’s summarize. An ore is a collection or combination of natural [20] minerals, or just one mineral, from which metal can be profitably extracted. Mines are dig sites in the earth where ore, coal, or gems are extracted. Mining is the skill or practice of running mines.

Throughout the subject, we see the inseparable idea of profit. The work of carrying on operations in a railroad tunnel is not mining; the driving of adits through barren rocks to reach ore bodies is not mining; the sinking of shafts through worthless "wash" or rocks with a view of opening avenues for the removal of ore is not mining. Mining is carried on only when ore is being produced. The wildcat practice of erecting small, temporary plants and digging prospect holes can be condemned as not being real mining.

Throughout this topic, we see the inseparable idea of profit. The work of operating in a railroad tunnel is not mining; the digging of adits through empty rocks to access ore bodies is not mining; the sinking of shafts through useless "wash" or rocks to create paths for ore removal is not mining. Mining only happens when ore is being produced. The reckless practice of setting up small, temporary plants and digging test holes can be criticized as not being true mining.

Universal Mine (bituminous), Clinton,

Universal Mine (bituminous), Clinton,

Universal Mine (bituminous), Clinton, Indiana.

Universal Mine (coal), Clinton, Indiana.

There is usually little question about the validity of a coal mining proposition, since "the goods show for themselves." Comparatively few cases of fraudulent ventures in coal properties are of record. The product of a coal mine is ready for market just as soon as it is loaded into railroad cars, the mining company receiving [21] its pay, commonly, upon its own recorded weights. There is no freight to pay, no waiting for assays or analyses, and no settlements with mills or smelteries. There are not the allurements for getting rich quickly in coal mining that are so beguiling to the class of investors generally approached by the promoters of mines(?). This must not be construed as stating that nobody has ever been deceived in a coal mine proposition, for, indeed, there have been many failures; however, they have been due, chiefly, to auto-deception as to area, thickness or quality of the coal measures. [22]

There’s usually no doubt about the legitimacy of a coal mining proposal, since "the results speak for themselves." There are relatively few documented cases of fraud in coal properties. The output of a coal mine is ready for sale as soon as it's loaded onto railroad cars, and the mining company typically gets paid based on its recorded weights. There's no freight to pay, no waiting for assays or analyses, and no negotiations with mills or smelters. There aren't the temptations of getting rich quickly in coal mining that often draw in the kind of investors typically targeted by mine promoters. This shouldn’t imply that no one has ever been misled in a coal mining venture; indeed, there have been many failures, but these have mainly stemmed from self-deception regarding the size, thickness, or quality of the coal deposits. [22]

III
THE ANTIQUITY OF MINING.

Mining is believed to have been one of man's earliest occupations. In historical writings, many of which date back into antiquity, there are allusions, as well as direct statements, concerning the art and tasks of obtaining valuable metals from Mother Earth. We are told that the very ancient Egyptians made common use of metals and that they possessed knowledge of certain metallurgical and metal-working processes (as for example, the tempering of copper) which we, of today, cannot claim. Six thousand years ago Egypt became a world power through her mining of copper in the Sinai Peninsula. Iron implements found in the great Gizeh Pyramid are supposed to date back to 4,000 B.C. Copper tools have been found in the ruins of ancient Troy. In Assyria, a very good steel saw, 44 inches long, was taken from the ruins of Nimrod. Iron was utilized by the Chinese some [23] 2,000 years B.C. Near Delhi, India, there exists an iron pillar, 22 feet long and weighing six tons, dating back to 400 B.C. It is chiefly interesting in exhibiting an ancient knowledge of welding which is the envy of our modern iron workers. If we accept the Hebrew Scriptures, we must believe that mining was carried on in the time of Tubalcain, spoken of in Genesis. The Old Testament contains numerous verses referring to the mining of metals, the land of perfect abundance being paraphrased in Deuteronomy thus: "Where the stones are of iron and out of its hills are digged mines of brass." Coal was mined and used in Greece in 1330 B.C.

Mining is thought to be one of humanity's earliest jobs. In historical texts, many of which go back to ancient times, there are references as well as direct mentions about the art and work of extracting valuable metals from the Earth. It's said that the ancient Egyptians frequently used metals and had knowledge of some metalworking processes (like tempering copper) that we today cannot claim. About six thousand years ago, Egypt emerged as a world power through its copper mining in the Sinai Peninsula. Iron tools found in the great Giza Pyramid are believed to date back to 4,000 B.C. Copper tools have been discovered in the ruins of ancient Troy. In Assyria, a well-made steel saw, 44 inches long, was retrieved from the ruins of Nimrod. The Chinese were using iron as far back as around 2,000 B.C. Near Delhi, India, there is an iron pillar, 22 feet long and weighing six tons, that dates back to 400 B.C. It's particularly interesting because it shows an ancient knowledge of welding that our modern metalworkers envy. If we consider the Hebrew Scriptures, we must accept that mining was practiced during the time of Tubalcain, mentioned in Genesis. The Old Testament has many verses about metal mining, describing a land of great abundance in Deuteronomy as: "Where the stones are of iron and from its hills are dug mines of brass." Coal was mined and used in Greece around 1330 B.C.

It is quite probable that gold was the earliest metal to be worked. There are two good reasons for this assumption: First, gold was to be found in the native state or as nuggets, thus requiring no reduction process. Second, the ores of gold are usually less refractory than are the ores of other metals. This is especially true of the oxidized ores such as would naturally be discovered by primitive [24] man. These facts, together with the further properties of gold, viz., that its color is attractive, that it resists corrosion or tarnish, and that it is easily worked into ornaments or coin merely by hammering, make it highly probable that humans early made use of this yellow material.

It's very likely that gold was the first metal to be worked. There are two solid reasons for this belief: First, gold can be found in its natural form or as nuggets, meaning it doesn’t need a reduction process. Second, gold ores are typically easier to work with than the ores of other metals. This is especially the case with oxidized ores, which would likely be found by early humans. These characteristics, along with other properties of gold, like its attractive color, resistance to corrosion or tarnish, and the fact that it can be easily shaped into ornaments or coins just by hammering, make it very likely that people started using this yellow material a long time ago.

We read in Job 28:1, that "gold is refined;" and modern investigations tend to prove that the Ophir of Biblical reference is the southern portion of Matabeleland or the Rhodesia of present fame among mining regions. It is possible and quite probable that the great quantities of gold used in the building and furnishing of King Solomon's Temple came from the vicinity of the present city of Johannesburg. The "golden fleece" of literature has been explained as a figure of speech for the skins of sheep which were laid in troughs to catch gold upon the principle of the riffle in a modern sluice-box.

We read in Job 28:1 that "gold is refined," and current research suggests that the Ophir mentioned in the Bible refers to the southern part of Matabeleland or what is now known as Rhodesia, a well-known mining area. It's possible, and quite likely, that the large amounts of gold used in building and decorating King Solomon's Temple came from near what is now Johannesburg. The "golden fleece" in literature has been interpreted as a metaphor for sheep skins laid in troughs to catch gold, similar to the way modern sluice boxes work.

Copper was perhaps the second metal to be worked by man. As a rule, it, also, is easily smelted from its ores; and, as above mentioned, we have relics that [25] give evidence of wonderful skill in working this metal in times of remote antiquity.

Copper was likely the second metal that humans worked with. Generally, it's also easy to extract from its ores, and as mentioned earlier, we have artifacts that [25] show incredible skill in shaping this metal from ancient times.

However, other metals are believed to have been mined, upon commercial scales, before the Christian era. Silver and lead were handled in large quantities from the mines of Laurium, Greece, in the sixth century B.C., and the same mines are being worked to this day, the principal values now being in the lead rather than, as formerly, in the white metal. The Phœnicians, about 500 B.C., invaded Spain for gold, copper and mercury, and Cornwall for tin and copper. The Almaden quicksilver mines of Spain have been operated, almost incessantly, since 415 B.C., and in the 16th century, A.D., the wealth of Europe's greatest family of financiers, the Fügers, was based upon the operation of this remarkable deposit.

However, other metals are thought to have been mined on a commercial scale before the Christian era. Silver and lead were extracted in large amounts from the mines of Laurium, Greece, in the sixth century B.C., and those same mines are still in operation today, with lead now being the primary value instead of, as it was before, the white metal. The Phoenicians, around 500 B.C., invaded Spain for gold, copper, and mercury, and Cornwall for tin and copper. The Almaden quicksilver mines in Spain have been continuously operated since 415 B.C., and in the 16th century A.D., the wealth of Europe’s greatest family of financiers, the Fügers, was based on the operation of this remarkable deposit.

Del Mar, in his History of the Precious Metals, says, "Desire for the precious metals, rather than geographical researches or military conquest, is the principal motive which has led to the dominion of the earth by civilized races. Gold has invariably invited commerce, [26] invasion has followed commerce, and permanent occupation has completed the process. It is the history of the past as well as of the present. Scipio went to Africa, Cæsar to Gaul, Columbus to America, Cortez to Mexico, Pizarro to Peru, Clive to the conquest and Hastings to plunder Bengal."

Del Mar, in his History of the Precious Metals, states, "The desire for precious metals, rather than geographical exploration or military conquest, is the main reason that civilized nations have taken control of the earth. Gold has consistently sparked trade, [26] which has led to invasion, and permanent settlement has finalized the process. This has been true in both the past and the present. Scipio went to Africa, Cæsar to Gaul, Columbus to America, Cortez to Mexico, Pizarro to Peru, Clive for conquest and Hastings for plunder in Bengal."

Our own day has witnessed the subjugation of the Boer. Because of Mexico's mineral wealth, many optimistic Americans are beginning to prophesy the annexation of our sister republic. For gold, Englishmen populated Australia in 1850, about the same time (1849) that we witnessed the rush to California gold fields. Spaniards settled Central and South American countries merely to gain the precious metals. It is mining which has been responsible for the population of the arid, southwestern portion of our own domain.

Our time has seen the oppression of the Boer. Due to Mexico's rich mineral resources, many hopeful Americans are starting to predict the annexation of our neighboring republic. For gold, the English settled Australia in 1850, around the same time (1849) that we saw the rush to the California gold fields. The Spanish settled in Central and South American countries primarily to acquire precious metals. It is mining that has driven the population growth in the dry, southwestern part of our own territory.

In this, as in every other age of the world's development, we shall find that the mining industry lies at the heart of all commerce. It is well for the student of mining economics to fully appreciate [27] this fact, for it will whet his interest in this great world industry.

In this, as in every other stage of the world's development, we will see that the mining industry is central to all commerce. It's important for students of mining economics to really understand this fact, as it will spark their interest in this significant global industry.

"Truly, it has been a great seeking and finding. The story of mining may have been staled by commonplace, and the romance of it dulled, often enough, by greed; yet, in the main, it has linked the generations of earth as with a golden thread—and if not golden only, then there has been the red glint of copper or the white sheen of silver. Mining districts may come and go, but mining remains."—(Editorial, Engineering and Mining Journal). [28]

"Honestly, it has been a great journey of searching and discovering. The story of mining may have become ordinary, and its romance often dulled by greed; yet, overall, it has connected the generations of earth like a golden thread—and if not just golden, then there’s the red shimmer of copper or the white luster of silver. Mining areas may rise and fall, but mining itself endures."—(Editorial, Engineering and Mining Journal). [28]

IV
MINING'S PLACE IN COMMERCE.

It is said that upon two of the world's commercial industries, every other form of activity depends. These two fundamental industries are agriculture and mining. Statisticians prove the above statement and the further fact that these two dissimilar branches of civilization's business are so closely related as to be quite inter-dependent. Strides are made by one of these industries only when advance is noted in the other. While it may not be possible to explain just why this is so, it is worth our attention to consider some brief figures that show this condition of affairs.

It is said that two of the world's commercial industries are the foundation for every other form of activity. These two essential industries are agriculture and mining. Statisticians support this claim and also demonstrate that these two different branches of civilization's economy are so closely connected that they are quite interdependent. Progress in one of these industries usually occurs only when there is progress in the other. While it may be difficult to fully explain why this is the case, it is important to look at some brief statistics that highlight this situation.

The agitation conducted during the past few years, leading to the establishment of a Bureau of Mines in the Department of the Interior, attracted the thoughts of many students of economics who had not previously or seriously considered the industry of mining. The [29] delivery of brilliant addresses showed that mining had been unjustly retarded. While agriculture has for years been fostered by the government and with remarkably satisfactory results, the great sister industry has been required, until recently, to struggle along without any governmental recognition in the matter of support. Yet it has forged its way in unmistakable terms of progress and there was an insistent demand, among those men particularly interested in the welfare of mining, for the protection and the assistance which would and has now come through the establishment of a governmental department. Various states have long recognized the importance of the mining industry by the establishment of departments. The Canadian and Mexican governments maintain very creditable Departments of Mines. It was but a question of time until the shortsightedness of our politicians (not our statesmen) was revealed, and the mining industry has now come under the auspices of a federal department.

The activism over the past few years, which led to the formation of a Bureau of Mines in the Department of the Interior, captured the attention of many economics students who hadn’t previously or seriously thought about mining. The [29] delivery of impressive speeches highlighted that mining has been unfairly held back. While agriculture has been supported by the government for years with impressive results, its counterpart in mining has, until recently, had to fight for recognition and support. Despite this, mining has made undeniable progress, and there has been a strong demand, especially from those who care about the mining sector, for the protection and assistance that has now been provided through the creation of a governmental department. Various states have long acknowledged the significance of the mining industry by setting up their own departments. The Canadian and Mexican governments have well-established Departments of Mines. It was only a matter of time before the short-sightedness of our politicians (not our statesmen) became clear, and the mining industry has now been brought under the guidance of a federal department.

Taking the world as a whole, it would [30] be hard to conceive the sum total of annual mineral productions. The middle of the past century seems to have been a critical period in the mining industry of the earth. There was a great impetus given to mining by the greed for gold which caused the settlement of our western states and the Australian states, as already mentioned. But there gradually followed the opening up of mining in many other and hitherto unpopulated and uncivilized portions of the globe. The search for gold was successful.

Taking the world as a whole, it would [30] be hard to imagine the total amount of annual mineral production. The middle of the last century seems to have been a pivotal time in the global mining industry. There was a huge boost in mining driven by the desire for gold, which led to the settlement of our western states and Australia, as mentioned earlier. Gradually, this was followed by the development of mining in many other, previously unpopulated and uncivilized areas of the world. The hunt for gold proved to be successful.

Prior to 1850, the production of gold had not kept pace with the increase in population. Soon, however, it began to take leaps, in almost geometrical ratios, until, by 1900, the annual production of gold throughout the world was some 2,200 per cent. of the production for 1800 (as nearly as may be ascertained). The 1900 gold production was of a weight of about 400 tons, in round figures. During 1911, the world produced approximately $470,000,000 (about 779 tons) in new gold bullion. It is estimated that with a continuance of the remarkable [31] progress, the next 20 years will duplicate the amount of gold now known in the world. This means that the amount of gold which has been accumulating from mining during the world's ages will be doubled during a fraction of our lifetime. This is significant of the world's progress, in gold mining, at least.

Before 1850, gold production didn't keep up with the growing population. However, it soon started to increase rapidly, almost exponentially, until by 1900, the annual global gold production reached about 2,200% of what it was in 1800 (as close as can be determined). The gold production in 1900 weighed roughly 400 tons, in round figures. In 1911, the world produced approximately $470,000,000 (about 779 tons) in new gold bullion. It's estimated that if this remarkable progress continues, the next 20 years will match [31] the amount of gold currently known in the world. This means that the gold accumulated from mining throughout history will be doubled in just a fraction of our lifetime. This indicates significant progress in global gold mining, at least.

Kennedy Mine, Jackson.

Kennedy Mine, Jackson.

Kennedy Mine, Jackson, California.

Kennedy Mine, Jackson, CA.

It seems coincidental that the rush for gold in 1849-50 should have been almost simultaneous with the remarkable development of our other mineral resources. All of our great discoveries of coal, oil, silver, iron, lead, copper, and zinc can be said to have followed closely upon the discovery of gold in California. It is not supposed that the discovery of iron in northern Michigan in the early eighties had any connection with the "Pike's-Peak-or-Bust" expeditions, nor that the opening and development of the vast coal beds of Pennsylvania had any bearing on the discoveries of lead and zinc in the great Mississippi Valley. But, on the other hand, there can be traced a very intimate relation between the finding of gold, silver, copper, and lead in the [32] Rocky Mountain states and the search for gold in California: the pioneers en route to the coast were the discoverers and settlers in Colorado, Wyoming, Utah, and Montana.

It seems coincidental that the gold rush of 1849-50 happened almost at the same time as the impressive development of our other mineral resources. All of our major discoveries of coal, oil, silver, iron, lead, copper, and zinc can be said to have closely followed the discovery of gold in California. It's not believed that the discovery of iron in northern Michigan in the early eighties had any link to the "Pike's-Peak-or-Bust" expeditions, nor that the opening and development of the vast coal deposits in Pennsylvania had any connection to the discoveries of lead and zinc in the great Mississippi Valley. However, there is a clear connection between the discoveries of gold, silver, copper, and lead in the [32] Rocky Mountain states and the search for gold in California: the pioneers traveling to the coast were the ones who discovered and settled in Colorado, Wyoming, Utah, and Montana.

Figures are not available for arriving at such striking or reliable conclusions in regard to the world's production of metals other than gold, but there is no logical reason to doubt that such increases have been just as pronounced as in the case of the yellow metal. In fact, there are good grounds for assuming that the figures for silver, lead, iron, and zinc would show up even more spectacularly; while with coal, we know that we are now in the greatest period of the world's production.

Figures aren't available to draw such striking or reliable conclusions about the world's production of metals other than gold, but there's no logical reason to doubt that the increases have been just as significant as with gold. In fact, there are strong grounds for believing that the figures for silver, lead, iron, and zinc would look even more impressive; and as for coal, we know we're currently in the largest period of global production.

The United States leads the world in the production of the base metals, such as copper, iron, manganese, lead, and zinc, taken collectively or separately. Our country stands second in the production of the precious metals, gold, platinum, and silver. We have the greatest variety of mineral products, as well as the greatest production of complex ores, or those carrying more than one valuable metal. [33] We produce more copper than the rest of the world combined. Although we stand in second place when considering the production of gold, we still possess the Homestake mine in the Black Hills, famous as being the gold mine with the greatest tonnage in the world; and the Camp Bird mine, in the San Juan district of Colorado, famous the world over for its highest average value of gold ore. This great mine is now nearly exhausted and is about to close down after making a wonderful record.

The United States is the top producer of base metals like copper, iron, manganese, lead, and zinc, whether considered together or separately. Our country ranks second in the production of precious metals like gold, platinum, and silver. We offer the widest range of mineral products and lead in the production of complex ores, which contain more than one valuable metal. [33] We produce more copper than the rest of the world put together. While we come in second for gold production, we still own the Homestake mine in the Black Hills, known for being the largest gold mine in terms of tonnage globally, and the Camp Bird mine in the San Juan district of Colorado, famous worldwide for its highest average value of gold ore. This great mine is now almost depleted and is about to close after achieving an impressive record.

South Africa produces the greatest amount of, and the purest, natural gold in the world. Great Britain has an insignificant production of both gold and copper, and still it is noteworthy that the English-speaking nations control the world's production of both these metals. British and American citizens own seven-eighths of the world's gold mines. England stands second in the consumption of copper, which, of course, is mainly imported.

South Africa produces the highest quantity and the purest natural gold in the world. Great Britain has a minimal output of both gold and copper, yet it's impressive that English-speaking countries dominate the global production of these metals. Citizens of Britain and America own seven-eighths of the world's gold mines. England ranks second in copper consumption, which is mainly imported.

Russia controls the world's output of platinum, with very little competition. [34] In a similar manner, Canada has the control of nickel production. Mexico, although not commonly regarded as a gold mining country, is rapidly coming to the front and possesses the Esperanza mine, said to be one of the most profitable gold mines in the world.

Russia dominates global platinum production, facing minimal competition. [34] Similarly, Canada leads in nickel production. While Mexico isn't typically seen as a gold mining nation, it's quickly making a name for itself and is home to the Esperanza mine, which is considered one of the most profitable gold mines in the world.

To more emphatically show the importance of the mining industry, especially in our own country, the following facts are taken from 1900 census returns: Agriculture produces annually about $725 per capita; mining, $1,910; and manufacturing, which is dependent upon the others, $760. The National Banker has said: "Statistics show that the combined dividends paid by the gold and silver mining companies of the United States are greater than the combined dividends paid by all of the banking institutions of the country; and the combined dividends paid by the copper mining companies of the United States exceed the combined dividends paid by all of our railroads."

To emphasize the importance of the mining industry, especially in our own country, here are some facts from the 1900 census data: Agriculture generates about $725 per person each year; mining brings in $1,910; and manufacturing, which relies on the others, produces $760. The National Banker stated: "Statistics show that the total dividends paid by gold and silver mining companies in the United States are higher than the total dividends paid by all the banking institutions in the country; and the total dividends from copper mining companies in the United States exceed the total dividends paid by all of our railroads."

There is one thought that will always comfort any person who is engaged in furthering legitimate mining: Wealth [35] acquired from a mine is not wrested from any being but Mother Earth, and it is not, therefore, in the class with the much discussed "tainted money" that is said to be wrung from unfortunate human beings.

There’s one idea that will always bring comfort to anyone involved in legitimate mining: The wealth [35] gained from a mine comes from Mother Earth, not from any individual, so it doesn't belong in the same category as the much-talked-about "tainted money" that's supposedly taken from unfortunate people.

The following tables are presented to give the reader ideas concerning the productions of gold and silver during recent years. Among the interesting points that may be noted are the following:

The following tables are provided to give the reader insights into gold and silver production in recent years. Some interesting points to note include the following:

The gold production of the world took a sudden drop in 1900, but it immediately resumed its upward climb. During the decade from 1900 to 1910, this production increased over 81 per cent.

The world's gold production took a sharp decline in 1900, but it quickly started to rise again. Over the decade from 1900 to 1910, this production grew by more than 81 percent.

There is a remarkable similarity noticeable in the gold productions of the United States during the years 1910 and 1911.

There is a noticeable similarity in the gold production of the United States in 1910 and 1911.

Without the notable increase in the gold output of the Transvaal in 1911, the world's total gold production for that year would have shown a decrease.

Without the significant rise in gold output from the Transvaal in 1911, the total gold production in the world for that year would have actually declined.

The silver production of the United States remained practically unchanged during 1911. [36]

The silver production in the United States stayed almost the same throughout 1911. [36]

 

GOLD PRODUCTION OF THE WORLD FOR 20 YEARS

GOLD PRODUCTION AROUND THE WORLD OVER THE PAST 20 YEARS

1892 $146,292,600 1902 $298,812,493
1893 158,437,551 1903 329,475,401
1894 182,509,283 1904 349,088,293
1895 198,995,741 1905 378,411,054
1896 211,242,081 1906 405,551,022
1897 237,833,984 1907 411,294,458
1898 287,327,833 1908 443,434,527
1899 311,505,947 1909 459,927,482
1900 258,829,703 1910 469,365,110
1901 260,877,429 1911 473,383,543

 

UNITED STATES SILVER PRODUCTION
(In Fine Ounces)

UNITED STATES SILVER PRODUCTION
(In Fine Ounces)

  1910 1911
Alabama 300 174
Alaska 153,900 275,691
Arizona 2,655,700 1,594,428
California 1,791,600 2,727,336
Colorado 8,523,000 7,530,940
Georgia 300 225
Idaho 7,027,000 7,507,802
Illinois 2,100 4,648
Michigan 262,200 507,234
Maryland   87
Missouri 32,200 56,228
Montana 12,282,900 10,651,571
Nevada 12,366,000 507,234
N.Mexico 779,000 1,142,335
N.Carolina 8,300 2,227
Oklahoma   168,245
Oregon 43,800 69,116
Pennsylvania 700 13,262
S.Carolina   14
S.Dakota 120,600 206,188
Tennessee 69,800 126,683
Texas 364,400 442,486
Utah 10,445,900 12,679,633
Virginia 200 45
Washington 204,900 142,196
Wyoming 1,300 1,009
Porto Rico   51
Philippines 1,800 3,383
Miscellaneous   826,102
  __________ __________
Total 57,137,900 57,796,117

 

UNITED STATES GOLD PRODUCTION
(In Value)

U.S. Gold Production (Value)

  1910 1911
Alabama $32,900 $18,335
Alaska 16,271,800 16,002,976
Arizona 3,413,200 2,954,790
California 20,441,400 20,310,987
Colorado 20,526,500 19,153,860
Georgia 24,000 30,532
Idaho 1,035,000 1,169,261
Illinois   5,788
Michigan   20
Maryland   20
Montana 3,720,400 3,169,840
Nevada 18,783,700 18,968,578
New Mexico 477,200 639,897
N.Carolina 64,500 76,693
Oklahama   30,698
Oregon 18,783,700 18,968,578
Pennsylvania 18,783,700 18,968,578
S.Carolina 37,800 13,437
S.Dakota 5,380,200 7,430,367
Tennessee 2,800 14,140
Texas 400 1,178
Utah 4,312,700 4,709,747
Virginia 900 4,300
Washington 806,000 504,537
Wyoming 4,100 18,791
Porto Rico 1,000 2,191
Philippines 154,400 130,501
Miscellaneous   265,013
  __________ __________
Total $96,269,100 $96,233,528

 

GOLD PRODUCTION OF THE WORLD

World Gold Production

  1910 1911
Transvaal $155,730,260 $170,487,900
United States including Alaska 96,269,100 96,233,528
Australia 65,634,340 61,072,409
Russia 43,168,389 40,600,000
Mexico 24,073,100 19,500,000
Rhodesia 12,607,791 13,045,100
India 12,089,400 10,505,506
Canada 10,224,910 10,646,000
China 10,102,300 10,000,000
Japan, East Indies, etc. 10,522,437 10,600,000
West Africa 3,674,087 5,268,100
Madagascar 2,149,721 1,900,000
France 1,114,700 1,275,000
Central and South America 14,886,234 15,000,000
Other countries 7,118,841 7,250,000
  __________ __________
Total $469,365,610 $473,383,543

 

V
THE FINDING OF MINES.

Mines are discovered in many ways. One hears much about prospecting, and since this is a practice which is rapidly changing from a mystical to a scientific basis, a few considerations will here be in order.

Mines are found in various ways. People often talk about prospecting, and since this practice is quickly shifting from a mystical approach to a scientific one, a few thoughts on the matter are in order.

Persons who have lived in mining communities are familiar with two types of prospector, the roving and the settled. Somehow, when we think of the former, there comes to mind a bearded, roughly clad man, usually accompanied by a "jack" and both packing the outfit consisting of a few tools, a pan, some blankets, a gun, and a supply of "grub." If we have in mind the other type of prospector, we imagine him as living an isolated life in a log cabin up in the hills, spending his daytime in putting in a few, short drill-holes and blasting down a ton or two of usually worthless rock in a [40] "tunnel" or shallow shaft, confident that each succeeding shot will disclose a treasure.

People who have lived in mining communities are familiar with two types of prospectors: the wandering and the settled. When we think of the former, we picture a bearded, scruffily dressed man, usually accompanied by a "jack," both carrying gear that includes a few tools, a pan, some blankets, a gun, and a supply of "grub." If we envision the other type of prospector, we see him living an isolated life in a log cabin up in the hills, spending his days drilling a few short holes and blasting down a ton or two of typically worthless rock in a [40] "tunnel" or shallow shaft, confident that each blast will reveal treasure.

Both of these types represent the utmost in optimism. These men endure many hardships and privations, they can have little converse with other humans, often they can see no provisions for the next day; in fact, they receive few of the benefits of modern civilization—if we except the food-preserving features. Still, a typical, old-style prospector keeps on with absolute faith that fortune will smile tomorrow. We must reach the conclusion that these uneducated men are led on by subtle beliefs which, to a technically-trained man, seem like the rankest folly. They are diviners, dreamers. They are disappearing now and, a generation hence, there will be but memories of them. They are giving way to successors of a different type.

Both of these types embody the peak of optimism. These men face numerous hardships and challenges, have minimal interaction with others, and often don’t have any plans for the next day; in fact, they enjoy few of the benefits of modern civilization—except for the food-preserving advancements. Still, a typical old-school prospector continues on with unwavering faith that luck will come their way tomorrow. We must conclude that these uneducated men are driven by subtle beliefs that, to a technically-trained individual, seem like pure nonsense. They are visionaries, dreamers. They are fading away now, and in a generation, there will only be memories of them. They are making room for successors of a different kind.

The newer kind of prospector is well educated, and, perchance, he is rather youthful. His chances of success are many times those of the man he supplants. Why? Because he is taking [41] advantage of the work that has been done by all former prospectors. He is guided by theories deduced from observations through ages, and he has the advice of the best contemporary men of experience in matters of geology as applied to mining. In other words, he is a scientific prospector.

The newer type of prospector is well-educated and, perhaps, quite young. His chances of success are many times greater than those of the person he replaces. Why? Because he is taking advantage of the work done by all previous prospectors. He is guided by theories based on observations made over the years, and he benefits from the advice of the best modern experts in geology as it relates to mining. In other words, he is a scientific prospector.

The prospector of today has a general understanding of mineralogy and geology; he must have knowledge of mining methods, so that he may know whether a deposit, once found, can be exploited at a profit; he must be ready to account for all discovered mineral bodies, and he must be capable of applying theories to actualities.

The modern prospector has a solid understanding of mineralogy and geology; they need to know about mining methods so they can determine if a deposit, once found, can be profitably mined; they must be prepared to account for all discovered mineral resources, and they must be able to apply theories to real situations.

There are so many metals and minerals sought for the markets of the world today that we see there are many fields of study and practice open to prospectors. It is not the purpose here to explain the details of scientific prospecting, for the study of this one subject would, in itself, fill a volume. The object of the above remarks is to draw to the attention of the economist the propriety (amounting almost [42] to a necessity) of giving heed to the findings of the educated, trained searcher for mineral bodies, in preference to those of the illiterate man who has furnished themes for artists, narrators, and dramatists, because of his quaint characteristics.

There are so many metals and minerals in demand in today's global markets that we can see many areas of study and practice available to prospectors. This isn't the place to dive into the specifics of scientific prospecting, as just exploring that single topic could fill a book. The point of the previous comments is to highlight to economists the importance (almost a necessity) of paying attention to the insights of educated, trained mineral searchers, rather than relying on the uneducated individuals who have inspired artists, storytellers, and playwrights due to their unique traits.

Some writers have classified mineral discoveries into Search, Chance and Adventitious.

Some writers have categorized mineral discoveries into Search, Chance, and Accidental.

Search discoveries, being the rewards of earnest seeking, it is not surprising that, under the past guide of notions and mysticism, the percentage of such discoveries has been small. Under the new order of things, with science as a guide, the percentage is growing and, in the future, this kind of discovery will undoubtedly strongly outnumber the others.

Search discoveries, which are the results of serious inquiry, it’s not surprising that, under the previous influence of ideas and mysticism, the rate of such discoveries has been low. With the new way of doing things, guided by science, this rate is increasing, and in the future, this type of discovery will surely far exceed the others.

Chance discoveries are those that are made purely without premeditation. They have been a dominant factor in the mineral development of the past. The discovery of gold in California came about through the noticing of shiny, yellow flakes of metal in a ditch leading to a saw-mill. The great iron mines of the Mesabi Range were found by the ore [43] clinging to the roots of an overturned tree. The Wallaroo copper mine, the greatest in Australia, was discovered by the green minerals brought to the surface in the excavations of a wombat. The famous Sudbury nickel-silver ore bodies were disclosed when making a railroad cut on the Canadian Pacific Railroad. The Reddington quicksilver mine, in California, was similarly opened in a cut for a wagon road. The mining of silver at Catorce, Mexico, followed the discovery of shining silver nuggets in the camp-fire of a native, who had camped right upon a rich outcrop. The Kimberly diamond mines are said to have been disclosed by the burrowings of an ichneumon, which fetched a brilliant stone to the sunlight.

Chance discoveries are those made completely without planning. They have played a significant role in mineral development throughout history. The discovery of gold in California happened when somebody noticed shiny, yellow flakes of metal in a ditch leading to a sawmill. The significant iron mines of the Mesabi Range were found by ore [43] clinging to the roots of an overturned tree. The Wallaroo copper mine, the largest in Australia, was uncovered by green minerals that surfaced during wombat excavations. The famous Sudbury nickel-silver ore bodies were revealed while making a railroad cut on the Canadian Pacific Railroad. The Reddington quicksilver mine in California was similarly discovered in a cut for a wagon road. The mining of silver at Catorce, Mexico, began after shining silver nuggets were found in the campfire of a native who had camped right on a rich outcrop. The Kimberly diamond mines are said to have been uncovered by an ichneumon that brought a brilliant stone to the surface.

Adventitious finds are such as occasionally occur when, while really searching for, or actually mining, one metal, discovery is made of a different metal, or possibly the same metal is found in an entirely different kind of ore. The Comstock lode of Nevada was originally a search gold discovery, the gold having been sought and found by two prospectors [44] with ordinary gold pans. In their working to recover gold, a black mineral and a yellow sand were discarded from the pans and rockers. Curiosity of one man resulted in the identification of these two minerals as ores of silver which henceforth were held as valuable as the native gold. The Anaconda mine, at Butte, Montana, was located, and for some time worked as a silver proposition; but the values gradually changed with depth from silver to copper, until now silver is only a valuable by-product. The rich lead-silver ores of Leadville were discovered as adventitious to the operation of the rich gold placers in California Gulch. A heavy, troublesome rock which accumulated in the sluices, much to the disgust of the miners, turned out to be cerussite, a fine ore of lead. This same district now produces in commercial amounts gold, silver, lead, iron, zinc, copper, and manganese. The Treadwell mine on Douglas Island, Alaska, was first worked as a placer and the values were found to extend downward into the underlying rock in a place which proved [45] to be an immense deposit of eruptive, gold-bearing ore.

Adventitious finds are those that happen now and then when, while actively searching for or actually mining one metal, a different metal is discovered, or maybe the same metal is found in a completely different type of ore. The Comstock lode in Nevada was originally a search gold discovery; the gold was sought and found by two prospectors [44] using regular gold pans. While trying to extract gold, they discarded a black mineral and yellow sand from their pans and rockers. The curiosity of one man led to identifying these two minerals as silver ores, which were thereafter considered as valuable as the native gold. The Anaconda mine in Butte, Montana, was initially developed as a silver mining site; however, the value switched gradually from silver to copper as they dug deeper, until now silver is merely a valuable by-product. The rich lead-silver ores of Leadville were discovered adventitious to the operations of the rich gold placers in California Gulch. A heavy, annoying rock that built up in the sluices, much to the miners' frustration, turned out to be cerussite, a high-quality lead ore. This same area now produces commercially significant amounts of gold, silver, lead, iron, zinc, copper, and manganese. The Treadwell mine on Douglas Island, Alaska, was first operated as a placer, and it was found that the values extended downward into the underlying rock, revealing [45] an immense deposit of volcanic, gold-bearing ore.

As the old-fashioned, venturesome kind of prospecting has but recently been crowded off the scene by the better, scientific kind, let us not overlook the great discoveries that were made in the past before we had applied "organized common sense" to such a field of activity. Those original prospectors were searchers, hunters. They had no guides, but they did accomplish a great deal, and their discoveries were rewards for diligence and hard labor which were, to a great extent, often misdirected. [46]

As the old-school, adventurous style of prospecting has recently been pushed aside by a more scientific approach, let's not forget the significant discoveries made in the past before we applied "organized common sense" to this field. Those original prospectors were explorers and seekers. They had no guides, but they achieved a lot, and their discoveries were rewards for their hard work and perseverance, which were often, to a large extent, misdirected. [46]

VI
MINING CLAIMS.

The process of acquiring title to mining property may be viewed from a number of points. Such property is real estate and, as such, it may be bought and sold or otherwise transferred exactly the same as farms or city lots.

The process of obtaining ownership of mining property can be seen from several perspectives. This property is real estate, so it can be bought, sold, or otherwise transferred just like farms or city lots.

The United States has constructed an elaborate system for the disposal of its public lands to individuals, under various classifications, such as homestead, desert land, timber and stone, timber culture, coal, placer, and lode claims. Different rules apply to the filing upon, improvement and patenting (acquiring deed from the Government) of these various kinds of claims. The character of the lands in the public domain is decided by the surveyors who execute contracts from the General Land Office for subdividing or staking the country off into townships and sections, according to our American system. In the return of each surveyor's [47] notes, he recommends the sale of the land according to his judgment as to its highest value. There has naturally been a good deal of erroneous conception upon these points, with the result that, often, land has been later shown to be entirely different in its character from the classification given to it by the contracting surveyor; for the qualifications of such a person are not always of a high grade, when it comes to geological questions. And yet, on the whole, the scheme has worked out well and much fraud against the Government has been prevented by the rigid practice.

The United States has set up a complex system for selling its public lands to individuals, categorized into different types like homestead, desert land, timber and stone, timber culture, coal, placer, and lode claims. Different regulations apply to filing, improving, and acquiring a deed (patenting) from the government for these various claims. The nature of the lands in the public domain is determined by surveyors who have contracts with the General Land Office to divide the land into townships and sections, following the American system. In the reports from each surveyor's notes, they suggest selling the land based on their assessment of its highest value. There has understandably been a fair amount of misunderstanding on these issues, leading to situations where the land is shown to be entirely different from what the contracting surveyor classified it as; often, the qualifications of these individuals are not very strong when it comes to geological matters. However, overall, the system has generally worked well, and the strict practices have helped prevent much fraud against the government.

The Government prices for some of the various classes of land have been as follows: agricultural, $1.25 per acre; coal, $10 per acre when the land was not closer to a railroad than 15 miles, and $20 per acre when it lay within this limit; placer, $2.50 per acre; lode, $5 per acre. These have been the prices demanded for the land only; the payment of these amounts, in many cases, has constituted a small fraction of the expense of securing the original deeds from the Federal Government. [48]

The government prices for various types of land have been as follows: agricultural land, $1.25 per acre; coal land, $10 per acre if it was more than 15 miles from a railroad, and $20 per acre if it was within that distance; placer land, $2.50 per acre; lode land, $5 per acre. These were the prices required for the land itself; in many cases, paying these amounts was just a small part of the overall cost of getting the original deeds from the federal government. [48]

Coal lands may be located very much the same as a homestead, with the exception that residence upon the ground is not required, nor are improvements essential. In cases of dispute as to priority of location, the land office will recognize those claimants who have expended the greater amounts in improvements. One citizen may locate but one claim of 160 acres.

Coal lands can be found in much the same way as a homestead, except that you don’t need to live on the land, and you don’t have to make any improvements. If there’s a dispute about who claimed the land first, the land office will acknowledge those claimants who have spent more on improvements. A citizen can only claim one tract of 160 acres.

Since April 10, 1909, the Government has been disposing of its public coal lands under a classification that takes note of many details. The kind, grade, thickness, and purity of coal; the number of workable seams; the depth; the features of local supply; transportation facilities; and the average prices at which similar private tracts are held, are among the items recognized in the classification. Probably no two tracts will be sold at the same rate. In general, the new prices are higher than the flat prices that formerly prevailed and some pieces of land are now estimated as high as $175 per acre. In every case of application to purchase coal land, hereafter, the area in question will undergo inspection by Government [49] experts and a price will then be assessed. This law is being severely opposed as being unreasonably severe, and its amendment may be looked for.

Since April 10, 1909, the Government has been selling its public coal lands using a classification system that takes into account many details. Factors like the type, grade, thickness, and purity of coal; the number of workable seams; the depth; local supply features; transportation options; and the average prices of similar private properties are included in this classification. It's likely that no two tracts will be sold for the same price. Overall, the new prices are higher than the flat rates that used to apply, with some parcels now valued as high as $175 per acre. Moving forward, any application to purchase coal land will require an inspection by Government experts, who will then determine a price. This law is facing strong opposition for being excessively harsh, and changes to it may be anticipated.

Placer lands were formerly permitted to be taken up in any shape, the boundary stakes being placed upon the ground in such a manner as to include only the desirable area, which is usually of an alluvial nature along some valley or gulch. This practice has been forbidden, however, and a locator is now obliged to take up his land in quadrilateral tracts conforming to the subdivisions of the so-called Public Survey. By this rule, it is permissible to file upon land which is laid off into lots of not less than 1/16 of a quarter section—or ten acres—and a claim may be composed of such lots as lie contiguously and which may thus be considered as one complete workable area. The claims are often of zigzag or L shapes, but the locator is enabled, at the extra expense of subdivision surveying, to avoid filing upon, and paying for, much ground that he feels is not desirable in a placer claim. The Government does not survey [50] public domain into smaller tracts than quarter sections of 160 acres each, so that in the taking up of placers it often involves a great deal of expense to carry the subdivisions upon the ground into sufficient detail to ascertain the location of boundary corners.

Placer lands used to be able to be claimed in any shape, with boundary stakes placed on the ground to include only the desired area, which is usually alluvial land along a valley or gulch. However, this practice has now been banned, and a locator must now claim their land in rectangular tracts that match the subdivisions of the so-called Public Survey. According to this rule, it is allowed to file for land that is divided into lots of at least 1/16 of a quarter section—or ten acres—and a claim can consist of contiguous lots that can be treated as one complete workable area. The claims can often be zigzag or L-shaped, but the locator can, at the additional cost of subdivision surveying, avoid filing for and paying for land they consider undesirable in a placer claim. The Government does not survey public domain into smaller tracts than quarter sections of 160 acres each, so claiming placers can involve significant expenses to carry the subdivisions into enough detail to determine the location of boundary corners.

One person is entitled to as many placer claims as he desires. Each claim of a single individual may contain not to exceed 20 acres and, as said, it must be of one continuous area. Associations of citizens to the number of eight may unite in the location of 160 acres, which will then be held in equal and common interest by the several locators. The restraint placed upon greed in the matter of locations, either placer or lode, lies in certain expenses entailed in work or improvements upon the land before patent may be issued and the legal requirement of the performance of labor upon each claim amounting to $100 per annum. Also, it is required that bona fide values be disclosed upon the ground. For each 20 acres located under the placer laws of the United States, not less than $500 [51] worth of improvements must be made before the issuance of a patent.

One person can have as many placer claims as they want. Each claim can be up to 20 acres and must be one continuous area. Groups of up to eight citizens can come together to claim 160 acres, which will be held equally by all members of the group. There are limits to prevent greed in claiming land, whether it's placer or lode. These limits include the costs associated with working on or improving the land before a patent can be issued, as well as the legal requirement to perform $100 worth of labor on each claim every year. Additionally, real values must be shown on the ground. For every 20 acres claimed under the placer laws of the United States, at least $500 [51] worth of improvements must be made before a patent can be issued.

The legal (not the technical) definition of lode land covers all grounds containing deposits of ore in its natural and original place of deposit. Under the laws, therefore, a citizen may file upon a tract of land to include a vein, lode, mass, chimney or any other form of ore body. The laws were framed at a time when miners were familiar only with the steep, tabular forms, synonymously termed veins or lodes in their nomenclature, and there were introduced features which time and progress in geological investigations have proved to be entirely unsuited to the needs of locators in many districts.

The legal (not the technical) definition of lode land includes all areas that have ore deposits in their natural and original location. According to the laws, a citizen can file on a piece of land to include a vein, lode, mass, chimney, or any other type of ore body. These laws were created during a time when miners were only familiar with steep, flat shapes, known as veins or lodes. Over time, features have been introduced that geological advancements have shown to be completely inappropriate for the needs of locators in many areas.

Our statutes provide that a lode claim may not exceed an area of 20,662 acres, this being the area of a parallelogram 1,500 feet long by 600 feet wide. The intention is to permit a discoverer to lay off a "lode line" along the outcrop of his vein for a distance of 1,500 feet and, at each end, to measure off, at right angles, a distance of 300 feet each way, merely as assurance that he covers the [52] entire thickness of his lode. Since the surface contours of rugged country will crook the outcrop of a dipping plane (such as we may imagine a vein to be) the laws were constructed to permit a claim being laid off with angles or bends in the boundaries so that the outcrop might be kept closely along the middle of the claim.

Our laws state that a lode claim cannot be larger than 20,662 acres, which is the size of a rectangle that is 1,500 feet long and 600 feet wide. The purpose is to allow a discoverer to mark a "lode line" along the surface of their vein for 1,500 feet, and at each end, measure out 300 feet perpendicular in both directions, just to ensure they cover the entire thickness of their lode. Since the uneven terrain in rugged areas can distort the surface of a slanting plane (like what we might think of a vein to be), the laws were designed to allow a claim to be marked with angles or bends in the boundaries so that the surface remains closely aligned with the center of the claim.

The above dimensions and area are the maximum permissible under the Federal laws. The Government does not say that claims may not be less in extent, anywhere, nor does it prevent states, counties or even mining districts from making further limitations. In most of the western mining states and territories that have applied the mining law, the full maximum is allowed; but in Colorado no claim is legal if it exceeds a width of 300 feet, while in four counties of the same state claims have been restricted in width to 150 feet. By legislative enactment, since September 1, 1911, claims in all counties of Colorado are permitted to be taken up 300 feet in width. The citizens or miners of any new district, in any state or territory, [53] may elect to limit claims to any size less than the maximum granted by the statutes and such a decision will be recognized by courts as binding upon all comers. This is an example of the rights of custom in establishing common law. In all shapes and widths of lode claims, there is now the rigid restriction that the two end-lines must be laid off exactly parallel.

The dimensions and area mentioned above are the maximum allowed under federal laws. The government doesn’t state that claims can’t be smaller anywhere, nor does it stop states, counties, or mining districts from imposing additional restrictions. In most western mining states and territories that have adopted mining laws, the full maximum is permitted; however, in Colorado, no claim is legal if it exceeds a width of 300 feet, while in four counties of the same state, claims have been limited to a width of 150 feet. Since September 1, 1911, by legislative action, claims in all Colorado counties are allowed to be taken up to 300 feet wide. Citizens or miners in any new district, in any state or territory, [53] can choose to limit claims to any size smaller than the maximum permitted by the statutes, and such a decision will be recognized by courts as binding on everyone. This reflects the rights of custom in shaping common law. For all shapes and widths of lode claims, there is now a strict requirement that the two end-lines must be laid out exactly parallel.

A Gilpin County, Colorado, Scene

A Gilpin County, Colorado, Scene

A Gilpin County, Colorado, Scene,
Showing the Prize, Gunnell, Concrete, Gold Collar, and Eureka Mines.

A scene from Gilpin County, Colorado,
featuring the Prize, Gunnell, Concrete, Gold Collar, and Eureka Mines.

The laws of our country contemplate the right of any locator of a vein to follow such vein down upon its dip, even if it extends beyond vertical planes passed through the side boundaries. The vertical planes through the end-lines, however, may not lawfully be penetrated in the extraction of ore bodies. The application of this doctrine of "extra-lateral rights" has led to innumerable controversies that have crippled many worthy mining enterprises. The inevitable habit of different veins to intersect, branch, unite, and in many other ways to cause complications, has served no purpose but to delay operations, cause legal warfare and embitter neighbors. So unjust have been courts' decisions in interpreting[54] the lax laws that various mining districts have taken unto themselves the prerogative of deciding for themselves what is justice to all concerned; and we therefore find that many "camps" have unwritten laws under which claimants are restrained in their underground operations, to the ground contained between vertical planes through all boundaries, whether end or side. This is obviously the only fair plan, and it is hoped that, whenever the legislators at Washington get time to give to the matter the attention it deserves, our nation will be favored with a revision of this and a number of other objectionable mining laws which have retarded the industry. Ours is the only country having laws permitting extra-lateral rights and, upon this score, we are criticized by all foreigners.

The laws in our country allow any locator of a vein to follow that vein down its dip, even if it goes beyond the vertical planes defined by the side boundaries. However, the vertical planes through the end-lines cannot be legally crossed when extracting ore bodies. This principle of "extra-lateral rights" has led to countless disputes that have hindered many promising mining ventures. The tendency of different veins to intersect, branch, unite, and create other complications has only served to delay operations, spark legal battles, and create resentment among neighbors. Court decisions interpreting[54] these loose laws have often been so unfair that various mining districts have taken it upon themselves to determine what is fair for everyone involved. As a result, many "camps" have developed unwritten rules that restrict claimants in their underground work to the area between vertical planes through all boundaries, whether at the ends or the sides. This is clearly the only fair approach, and it is hoped that when lawmakers in Washington finally prioritize this issue, our nation will benefit from a revision of this and several other problematic mining laws that have held back the industry. We are the only country with laws that allow extra-lateral rights, and because of this, we face criticism from foreigners.

The Canadian government appears to leave the framing of mining laws to the several provincial governments. Ontario and Quebec have very good and simple laws relative to mining claims. In some respects the laws of the two provinces are similar. For example, in each province a claim must be laid out as a subdivision [55] of the usual public survey and is normally 40 acres in extent. Again, no prospecting or locating may be done except by persons holding so-called miners' licenses or miners' certificates, which cost $5 to $10 per year. No extra-lateral rights are recognized.

The Canadian government seems to let the provincial governments handle the framing of mining laws. Ontario and Quebec have straightforward and effective laws regarding mining claims. In some ways, the laws in both provinces are alike. For instance, in each province, a claim must be established as a subdivision of the standard public survey and is usually 40 acres in size. Additionally, no prospecting or locating can take place unless carried out by individuals holding what are called miners' licenses or miners' certificates, which cost $5 to $10 per year. There are no recognized extra-lateral rights.

In Ontario, a patent may be applied for any time within 3-1/2 years of the date of certificate of record, and the land is purchased outright by the payment of $3 per acre. The patent thus obtained conveys no rights to timber or water on the property. In Quebec, patents are never issued and mining claims are held by a sort of lease, as it were. A license to hold a mining claim costs a flat fee of $10, plus an extra fee of one dollar per acre. At times, arrangements are made for holding and working mining property upon a 3 per cent royalty basis.

In Ontario, you can apply for a patent anytime within 3.5 years from the date of the record certificate, and the land can be purchased outright by paying $3 per acre. The patent you get doesn’t grant any rights to timber or water on the property. In Quebec, patents are never issued, and mining claims are essentially held through a sort of lease. A license to hold a mining claim costs a flat fee of $10, plus an additional dollar per acre. Sometimes, there are arrangements to hold and work on mining property with a 3 percent royalty.

The Mexican laws permit the location of any number of claims by individuals. A locator is required to employ an expert (perito) to make a careful survey of his claims (pertinencias), which are taken up in rectangular form. Measurements are [56] according to the metric system, and the unit of area is the hectara, which is the area of a square with 100-meter (328-feet) sides, and is equivalent to 2.471 acres. The government's sale price for mineral ground is 5 pesos (about $2.50) per hectare, or approximately one dollar, United States money, per acre. The unit size of a claim is a hectare, and it thus comes about that the words pertinencia and hectara are used somewhat synonymously.

The Mexican laws allow individuals to claim any number of mineral rights. A locator must hire an expert (perito) to conduct a thorough survey of their claims (pertinencias), which are taken in rectangular shapes. Measurements are [56] based on the metric system, and the unit of area is the hectare, which is the area of a square with 100-meter (328-feet) sides, equal to 2.471 acres. The government sells mineral ground for 5 pesos (about $2.50) per hectare, or roughly one dollar in U.S. currency per acre. The standard size of a claim is one hectare, so the terms pertinencia and hectare are often used interchangeably.

Under United States laws, the owner of agricultural land, if he has not committed perjury in perfecting his title, will hold all minerals which may be disclosed subsequently to the granting of his deed. The proof of false representations will rescind any such patent and the ground will revert to the Government and be again open to location.

Under U.S. laws, the owner of agricultural land, as long as they haven't committed perjury while securing their title, will own all minerals that may be discovered after their deed is issued. Evidence of false claims will cancel any such patent, and the land will return to the Government, becoming available for new claims again.

In the surveying and laying off of mineral claims for patent purposes, the United States laws require the claimant to put the work into the hands of a mineral surveyor. Such a surveyor may usually be engaged in any mining district and he will hold a commission from the [57] Department of the Interior authorizing him to do this sort of work. He will have passed certain examinations as to his capabilities and he will have filed bonds in the sum of $5,000 for the faithful performance of his duties to both the Government and his client. He receives no compensation from the Government, and each claimant may make such terms with him as are equitable. He must hold no interest, directly or otherwise, in the property he surveys, nor is he permitted to file upon any mineral land. If he undertakes a case for a client his duties require him to survey the boundaries of every other mineral claim which may be contiguous to, or conflicting with, the one in question, and his maps must accurately show all such claims. His notes will contain sufficient data to accurately convey the exact location, the chief topographical features, the conflicts with all other locations, the position, and description of all mining improvements, and many other details which will be required in the final purchase of the land from the Government. The [58] surveyor's fee will vary from $50 to possibly $200 for a single claim, much depending upon the nature of the survey, whether simple or difficult, and upon local financial conditions and competition.

In surveying and laying out mineral claims for patents, U.S. law requires the claimant to hire a mineral surveyor. This surveyor can typically be found in any mining district and will have a commission from the [57] Department of the Interior that allows him to perform this work. He must have passed specific exams to demonstrate his qualifications and filed a bond of $5,000 to ensure he fulfills his responsibilities to both the government and his client. He does not receive any payment from the government, and each claimant can negotiate fair terms with him. He cannot have any direct or indirect interest in the property he surveys, nor is he allowed to apply for any mineral land. If he takes on a case for a client, his responsibilities include surveying the boundaries of all adjacent or conflicting mineral claims, and his maps must clearly indicate all such claims. His notes must include enough information to pinpoint the exact location, key topographical features, any conflicts with other claims, the location and description of all mining improvements, and many other details necessary for the final purchase of the land from the government. The [58] surveyor's fee can range from $50 to around $200 for a single claim, largely depending on the complexity of the survey and the local market conditions.

After the filing of the mineral surveyor's notes and plats with the Surveyor-General, critical examination of the documents is made, and if they are found to conform with all requirements, the case is "approved" and it may then pass to the local land office of the district. Next begins a publication period of sixty days, during which opportunity is offered the public to enter objections to the issuance of a patent, either for reasons of conflict or because of fraud. If no such adverse proceedings are instituted, the patent will follow, in due time.

After the mineral surveyor's notes and plats are filed with the Surveyor-General, the documents are thoroughly examined. If they meet all requirements, the case is "approved" and then moves on to the local land office of the district. Next, there is a publication period of sixty days, during which the public can raise objections to the issuance of a patent, either due to conflicts or fraud. If no such opposing actions are taken, the patent will be issued in due time.

The ultimate expense of securing a patent to a claim of, say, the maximum area will not be less than $225, and it may run as high as $300 if in a region difficult to survey or if there are a good many conflicting surveys.

The total cost of obtaining a patent for a claim, let's say for the maximum area, will be at least $225, and it could go up to $300 if it's in a hard-to-survey area or if there are multiple conflicting surveys.

A mineral surveyor is prohibited from acting as attorney for the claimant in [59] presenting his claims before the Land Office, so an attorney's fee must be added to the above rough estimates. As a matter of fact, although the surveyor does not nominally appear as the attorney, in many a case it is he who makes out all of the documents to be then signed by an attorney in fact. The laws are faulty in this respect. The lawyer recognizes this fact and he asks the surveyor to make out the many legal forms; for who is so fully cognizant of the property and the desires of the claimant as the surveyor who has become intimately acquainted with the premises, its workings, its desirable features and everything concerned with the adjustment of conflicts? It is to be expected that he could best protect the claimant's interests, and it is wrong to retire him at this very critical time prescribed by a foolish law. The fee of an additional man in the case is an unjust burden upon the client. Land Office officials have recognized this fact. They know that the best documents reaching their offices are those prepared by mineral surveyors. [60]

A mineral surveyor is not allowed to act as the attorney for the claimant in [59] when presenting claims to the Land Office, which means an attorney's fee needs to be added to the rough estimates above. In reality, even though the surveyor doesn't officially act as the attorney, they often prepare all the documents to be signed by an attorney-in-fact. The laws are lacking in this regard. The lawyer is aware of this and asks the surveyor to handle the various legal forms; after all, who knows the property and the claimant's needs better than the surveyor who is familiar with the site, its operations, its advantages, and all issues related to resolving disputes? It stands to reason that they would best protect the claimant's interests, and it's unfair to push them aside at such a critical moment as dictated by a misguided law. Having to pay for another person in this situation is an unfair burden on the client. Land Office officials are aware of this reality. They recognize that the best documents submitted to their offices are those created by mineral surveyors. [60]

VII
PLACERING.

Different writers hold the following slightly different definitions of a placer: One says, "a placer is a surface accumulation of minerals in the wash of streams and seas," while another writes that a placer is "a place where surface depositions are washed for valuable minerals, such as gold, tin, tungsten, gems, etc." One definition conveys no notion of the operations of mining, but is merely geological, while the other involves the thought of the recovery of values.

Different writers have slightly different definitions of a placer: One says, "a placer is a surface accumulation of minerals in the wash of streams and seas," while another states that a placer is "a place where surface deposits are washed for valuable minerals, such as gold, tin, tungsten, gems, etc." One definition doesn't mention the mining process and is purely geological, while the other suggests the idea of recovering valuable materials.

No matter how or where found, placers were all originally of surface deposition. They are now found in gulches, cañons, valleys, ocean and lake beaches, glacial drifts, and sometimes beneath eruptive flows. Such placers as occupy the courses of streams are spoken of as gulch, valley, bar, and bench placers. The meanings of the first three names are obvious. By a bench placer is understood a deposit [61] that was originally the bed of a stream, but which, in the course of time, has been cut down, or through, in such a manner as to leave a shelf or bench of the "wash" hanging up some distance above the present base of the gulch or valley.

No matter how or where they are found, placers all originally formed from surface deposits. They are currently located in gulches, canyons, valleys, ocean and lake beaches, glacial deposits, and sometimes beneath volcanic flows. Placers that are found along the paths of streams are referred to as gulch, valley, bar, and bench placers. The meanings of the first three terms are clear. A bench placer refers to a deposit that used to be the riverbed but has since been eroded in such a way that it leaves a shelf or bench of the "wash" elevated some distance above the current bottom of the gulch or valley. [61]

When such deposits that have been covered by lava flows are disclosed and worked, they go by the name of "buried placers." They are, by no means, uncommon, and typical "drift mines" of this sort are operated in California and New Zealand. They present the novelty of working alluvial deposits under cover of solid rocks, and they thus conform to one of the early definitions of a mine, as previously given. Since the workings of such subterranean placers are generally confined to an approximately horizontal zone, the mine passages, to a certain degree, resemble those of a coal mine.

When deposits that have been covered by lava flows are uncovered and mined, they're called "buried placers." They aren't uncommon, and typical "drift mines" like this operate in California and New Zealand. They offer the unique experience of extracting alluvial deposits beneath solid rock, aligning with one of the early definitions of a mine, as mentioned before. Since the operations of these underground placers usually take place in a roughly horizontal area, the mine passages somewhat resemble those of a coal mine.

Placer deposits, being of a secondary nature, the materials are not in the place nor form of the original components. The gravels and sands, together with the valuable contents, probably originally existed [62] in some solid forms such as rocks or massive minerals. The primary structures, in the course of ages and by atmospheric agencies, have been disintegrated and carried by gravity and flowing water to lower levels. The finer the decomposed material, the further it has been transported.

Placer deposits are secondary, meaning the materials aren't in the same place or form as the original components. The gravels and sands, along with their valuable contents, likely started out as solid forms like rocks or large minerals. Over time, natural processes and weathering broke down the primary structures, and gravity and water carried them to lower areas. The finer the decomposed material, the further it has been moved.

If the original rocks carried gold, the flakes of the metal, being of high specific gravity, would tend to settle to the bottom of the channels and to be carried shorter distances than would the lighter, non-metallic particles. The finer the gold, the more evenly will it be distributed in the bed of gravel. Likewise, placers near the heads of gulches, as a rule, carry coarser gold than those farther down stream.

If the original rocks had gold, the flakes of metal, which are heavy, would settle at the bottom of the channels and get carried shorter distances than the lighter, non-metallic particles. The finer the gold, the more evenly it will be spread out in the gravel bed. Similarly, places near the top of gullies usually have coarser gold compared to those further downstream.

The valuable materials found in placers must, of necessity, be those that possess the property of resisting corrosion and disintegration. The minerals and metals are, therefore, of a very permanent character.

The valuable materials found in placers must, by their nature, be those that can resist corrosion and breaking down. Therefore, the minerals and metals are quite durable.

Every find of "values" in a placer is unquestioned evidence that somewhere, [63] above the present deposit, there originally existed primary depositions containing the valuable metals or minerals. The trail can frequently be traced back to them. These so-called "mother lodes" are not necessarily rich. In the case of gold, for instance, these original deposits of ore may not carry the metal in coarse enough particles to be visible and yet the placers may contain nuggets. There are numerous theories proposed to account for this observed phenomenon, but we will not discuss them here. The fact remains that nuggets have been actually produced artificially in flowing water under conditions similar to Nature's.

Every discovery of "values" in a placer is clear evidence that somewhere, [63] above the current deposit, there used to be primary deposits containing the valuable metals or minerals. The trail can often be traced back to them. These so-called "mother lodes" aren't always rich. For example, in the case of gold, these original ore deposits may not have large enough particles of metal to be visible, yet the placers can still contain nuggets. There are many theories proposed to explain this phenomenon, but we won't go into them here. The fact is that nuggets have actually been produced artificially in flowing water under conditions similar to those found in nature.

The methods of prospecting and working placer ground have undergone many improvements, but there are still many men practicing the primitive ways of a generation ago. The use of devices of simple construction and for operation by muscular effort is still familiar in many regions; and there are good miners who cling to such practice in the belief that it is the cheapest and truest way in which to ascertain the values of wash deposits. [64] Also, there are many placers of limited areas and irregular shapes that cannot be well handled in any other manner.

The methods for prospecting and working placer ground have improved a lot, but many people still use the basic techniques from a generation ago. Simple tools that rely on physical effort are still common in many areas, and some skilled miners stick to these methods, believing they're the most cost-effective and reliable way to determine the value of wash deposits. [64] Additionally, there are many placer deposits that are small and oddly shaped, which can't be effectively managed in any other way.

With a "pan," a man can wash, in ten hours, not over one cubic yard of dirt; and to accomplish this amount of washing the ground must be very loose and favorable. An ordinary ten-hour day's work is about 100 pans. This is equivalent to about one-half of a cubic yard, which is the unit of volume in all placering operations. One may thus readily arrive at the cost of carrying on operations in this way. A cubic yard of ordinary placer dirt is the equivalent of less than two tons. A batea is the Mexican equivalent for the American iron gold pan. It is a sort of broad, conical, wooden bowl and its capacity is not equal to the pan.

With a "pan," a person can wash, in ten hours, no more than one cubic yard of dirt; and to achieve this amount of washing, the ground must be very loose and suitable. An average ten-hour workday produces about 100 pans. This is roughly equal to about half a cubic yard, which is the standard unit of volume in all placer mining operations. One can easily calculate the cost of running operations this way. A cubic yard of typical placer dirt is equivalent to less than two tons. A batea is the Mexican version of the American iron gold pan. It's a type of broad, conical wooden bowl, and its capacity is not equal to that of the pan.

A "rocker" or "cradle" is a trough on rockers somewhat like the old-fashioned child's cradle. In using it, a stream of water is caused to flow into the device which has been nearly filled with gravel and the miner gives it a rocking motion that causes the contents to classify or [65] stratify according to the laws of specific gravity. The valuable particles, being the heaviest, will settle to the bottom, whence they may be subsequently removed. A "long tom" is an inclined, narrow box set stationary with a constant stream of water entering at the upper end. Gravel is also shoveled into the device at the same point. The process is more continuous than the preceding ones, the values accumulating at the bottom of the lower end, while the upper layers of gravel are carefully removed by skimming with shovels. The work will keep two men busy and the capacity is correspondingly greater. With a long tom, two men will ordinarily handle about five or six cubic yards in ten hours.

A "rocker" or "cradle" is a trough on rockers somewhat like an old-fashioned child's cradle. To use it, water flows into the device, which is nearly filled with gravel. The miner rocks it back and forth, causing the contents to sort or layer according to specific gravity rules. The heavier, valuable particles settle to the bottom, where they can be removed later. A "long tom" is a narrow, inclined box that remains stationary with a constant stream of water entering from the upper end. Gravel is also shoveled in at the same point. This process is more continuous compared to the previous ones, with valuable materials collecting at the bottom, while the upper layers of gravel are carefully skimmed away with shovels. This work keeps two men occupied, and the volume processed is greater. With a long tom, two men can typically handle about five or six cubic yards in ten hours.

Whenever deposits of a broad area, with considerable and uniform depth, are thought to be valuable, it has become a practice to prove their value by "prospect drilling." This is a mechanical method and one form of apparatus employed is of the churn-drill type common throughout oil and coal regions. With these portable machines, holes are put [66] down to bed-rock at intervals across the ground. As they are sunk, the holes are cased with iron pipes, the drillings are carefully saved and washed, and the values are estimated for each foot of descent. From the summation and averages obtained from all the holes, a very fair knowledge of the ground's worth can be obtained.

Whenever large areas with significant and consistent depth are believed to be valuable, it has become common practice to verify their potential through "prospect drilling." This is a mechanical method, and one type of equipment used is the churn-drill, which is widely found in oil and coal regions. With these portable machines, holes are drilled down to bedrock at intervals across the area. As they are drilled, the holes are lined with iron pipes, the samples are carefully collected and cleaned, and the values are assessed for each foot of depth. By summing up and averaging the results from all the holes, a fairly accurate understanding of the ground's value can be established.

Intensive placering is now the order of things and the marvelous increase in the use of dredges attests the success which these "gold ships" have attained. It is very interesting to watch the operations of these huge boats loaded with ponderous machines, especially when they are installed in inland regions or up in high mountain gulches. Yet numbers of them are thus in steady use. Wherever suitable beds with a tolerably uniform size of boulders and gravel are found, dams are built to retain the flows of streams until ponds are created of sufficient size to contain and float the barges.

Intensive mining is now the norm, and the amazing rise in the use of dredges shows how successful these "gold ships" have become. It's really fascinating to watch the operations of these massive boats loaded with heavy machinery, especially when they're set up in inland areas or high mountain valleys. Still, many of them are in regular use. Wherever suitable riverbeds with fairly uniform sizes of boulders and gravel are found, dams are built to hold back the water flow until ponds are formed that are large enough to accommodate and float the barges.

Dredges of Yuba Consolidated Goldfields, Hammonton.

Dredges of Yuba Consolidated Goldfields, Hammonton.

Dredges of Yuba Consolidated Goldfields, Hammonton, California.

Dredges from Yuba Consolidated Goldfields, Hammonton, California.

Continual improvements are being made in the construction of these mammoth [67] machines with a view to economy in operations that will result from greater capacities. All costs of placering are reckoned per cubic yard washed. Costs have been rapidly dropping during the past decade until now some companies, with extensive operations, are handling dirt at not to exceed three cents per cubic yard for excavating, washing, wasting the refuse, maintenance, repairs, labor, taxes, interest on investment, and the depreciation of equipment. Such figures will hold good only under very favorable natural conditions of ground and climate such as prevail in California; they have not been attained in the frigid regions of Alaska nor in the torrid South American interior. In view of the wonderful improvements brought forth by mechanical engineers, it is improper to deny that the future will bring still further reductions in placer costs. On the contrary, the signs are good for material reductions.

Continual improvements are being made in the construction of these massive [67] machines to enhance operational efficiency and increase capacity. All costs of placer mining are calculated per cubic yard washed. Costs have been decreasing rapidly over the past decade to the point where some companies with large operations are processing dirt for no more than three cents per cubic yard. This includes excavation, washing, waste management, maintenance, repairs, labor, taxes, interest on investment, and depreciation of equipment. These figures are only achievable under very favorable natural conditions, such as those in California; they haven't been reached in the freezing areas of Alaska or the hot interiors of South America. Given the incredible advancements made by mechanical engineers, it's unreasonable to think that the future won't bring further reductions in placer mining costs. On the contrary, the outlook is promising for significant decreases.

Dredges are very costly in their installation. They are usually designed to handle so many thousands of cubic yards per day. It has been stated, as a fair [68] but rough rule, that "bucket" dredges will average, in initial cost, one dollar for every cubic yard the boats will handle per month. Thus, if a dredge of this type is built to treat fifty or seventy thousand cubic yards in a month, working steadily, the costs will be respectively $50,000 or $70,000. Other types of dredges, known as the "dipper" and the "suction," will cost less than the bucket type, but have not gained general usage.

Dredges are quite expensive to install. They are typically designed to manage thousands of cubic yards each day. It has been said, as a rough guideline, that "bucket" dredges will cost about one dollar for every cubic yard they handle in a month. So, if a dredge of this type is built to process fifty or seventy thousand cubic yards in a month while operating continuously, the costs will be $50,000 or $70,000, respectively. Other types of dredges, known as "dipper" and "suction," are less expensive than the bucket type, but they haven't become widely used.

"Hydraulicking" is extensively practiced. This term signifies the working of placer deposits by water which is conducted through flumes and pipe-lines and, by means of nozzles called "giants" or "monitors," is directed, in huge jets, against the banks of gravel. These banks or walls are thus torn down and, by the same water, the loosened, disintegrated materials are caused to flow into and through long, wooden, box-like troughs known as "sluices." The floors of these sluices are paved with ribs, cleats or other obstructions termed "riffles" whose function it is to retard and collect the heavy particles which may, [69] later, during the process of cleaning up, be removed as the valuable product. The word "sluicing" is frequently used quite synonymously with hydraulicking.

"Hydraulicking" is widely used. This term refers to the method of extracting placer deposits using water, which flows through flumes and pipelines. With the help of nozzles called "giants" or "monitors," water is shot in powerful jets against the banks of gravel. This process breaks down the walls, and the same water carries the loosened materials into long, wooden, box-like troughs known as "sluices." The floors of these sluices are lined with ribs, cleats, or other obstructions called "riffles," which help slow down and collect the heavier particles that can be removed later during cleanup as the valuable product. The term "sluicing" is often used interchangeably with hydraulicking.

Costs of this latter sort of placering are considerably higher than those of dredging; but there are many deposits not adapted to dredging operations that may be nicely worked by sluicing, so that there will always be a field for this scheme. Average costs are difficult to obtain since it happens that most of the companies now operating hydraulically are secretive in their accounts. More labor is entailed, more time is required, greater delay is occasioned in cleaning up, and the amount of water used is much greater. Where water is abundant, this last item need not be considered. It is well to remember that even a very large dredge, while requiring a continual and large flow of water through its devices, can still operate with just the water in which it floats, this water being pumped and used repeatedly; whereas, in the case of hydraulic mining, the water may be used but once and, consequently, [70] there must be a large supply and at a good head or pressure.

The costs of this type of mining are significantly higher than those of dredging; however, there are many deposits that aren’t suitable for dredging but can be effectively extracted using sluicing, ensuring that this method will always have a place. It's challenging to get average cost figures since most companies currently using hydraulic methods are secretive about their finances. This method requires more labor, takes more time, causes greater delays in cleanup, and uses much more water. When water is plentiful, the last factor isn’t a concern. It's important to note that even a very large dredge, while needing a constant and substantial flow of water through its equipment, can still operate using just the water it floats on, which is pumped and reused; in contrast, hydraulic mining may only use the water once, so a large and pressurized supply is necessary. [70]

But, in spite of these disparaging points, we find instances in which, under peculiarly favorable conditions, hydraulicking has been carried on at very low figures. E. B. Wilson says: "The yield of the gravel at North Bloomfield was 7.75 cents per cubic yard; the cost of mining, 4.1 cents per cubic yard. The yield per cubic yard of gravel at La Grange was 10.19 cents, the cost of mining, 6 cents. The costs of mining at these two mines would analyze about as follows: Labor, 60 per cent; supplies, 17 per cent; water, 13 per cent; office, 10 per cent. Ground carrying but 3.99 cents per cubic yard has been worked at a profit at the first mine. With such a small margin to work on, it is evident that skill and executive ability must be provided from the pipemen up." It is claimed that an Idaho mine was worked profitably with less than two cents value in the dirt, but this is to be regarded with some doubt.

But despite these negative points, we see cases where, under particularly favorable conditions, hydraulicking has been done at very low costs. E. B. Wilson states: "The yield of the gravel at North Bloomfield was 7.75 cents per cubic yard; the cost of mining was 4.1 cents per cubic yard. The yield per cubic yard of gravel at La Grange was 10.19 cents, with mining costs at 6 cents. The mining costs at these two mines break down roughly as follows: Labor, 60 percent; supplies, 17 percent; water, 13 percent; office, 10 percent. Ground that returned only 3.99 cents per cubic yard has been mined profitably at the first site. With such a narrow margin, it's clear that skill and management must come from the pipemen up." It is said that a mine in Idaho was operated profitably with dirt valued at less than two cents, but this should be viewed with some skepticism.

The Snowstorm Placer, Fairplay, Colorado.

The Snowstorm Placer, Fairplay, Colorado.

The Snowstorm Placer, Fairplay, Colorado.
A typical Hydraulic Mine.

The Snowstorm Placer, Fairplay, Colorado.
A typical hydraulic mine.

There are large deposits in the arid [71] portions of the globe where water for working is not obtainable. To meet such conditions, numerous inventions continue to be placed upon the market. These devices are all planned in such a way as to use very little or no water. If water is required at all, the machines are expected to use it repeatedly. The machines are built to effect the segregation of the precious contents gravitationally, electrostatically, pneumatically, and by amalgamation with mercury. It is too early to say how successful such devices will prove in commercial operations. Because some of them have not "made good" does not mean that genius will not yet cope with the situation; and we look into the future to see large operations efficiently and economically conducted by dry placer machinery. There are now no authentic figures obtainable upon this question of dry placering costs. [72]

There are large deposits in the dry [71] parts of the world where water for processing isn't available. To address these conditions, many inventions continue to come onto the market. These devices are all designed to use very little or no water. If water is needed at all, the machines are meant to recycle it. The machines are engineered to separate the valuable materials using gravity, electrostatics, pneumatics, and by mixing with mercury. It's too early to determine how effective these devices will be in commercial settings. Just because some of them haven't worked well doesn't mean that innovation won't eventually solve the problem; we look ahead to a future where large operations are run efficiently and economically by dry placer machinery. Currently, there are no reliable figures available on the costs of dry placering. [72]

VIII
OPEN MINING.

Some mention has been already made of open mining. The greatest development of this sort of mining has come about since the application of the modern steam shovel to the excavation of ore. This practice was an American innovation and it is being adopted throughout the world wherever natural conditions will warrant.

Some mention has already been made of open mining. The biggest growth in this type of mining has happened since modern steam shovels were used to excavate ore. This practice was an American innovation and is now being adopted around the world wherever the conditions allow.

Within the past few years, immense bodies of iron ore have been discovered in northern Minnesota and the adoption of these immense, mechanically operated shovels has worked such economies in the mining of this kind of ore that entirely new cost figures have been established and tonnages are being produced which, a few years ago, would have seemed unbelievable. There are about a dozen mines of this "open pit" type that have each produced over a million tons of ore per year in a season that must cease with [73] the close of navigation on the Great Lakes. One mine has shipped over three million tons a season.

In the last few years, huge deposits of iron ore have been found in northern Minnesota, and the use of large, mechanically operated shovels has brought about significant cost savings in mining this type of ore. This has led to entirely new cost estimates and tonnage production that would have seemed unbelievable just a few years ago. There are about a dozen "open pit" mines that each produce over a million tons of ore per year, operating only until the close of navigation on the Great Lakes. One mine has even shipped over three million tons in a single season.

At the Utah Copper Company's mine in Bingham Cañon, Utah, a great deposit of low grade, copper-bearing eruptive rock is being handled upon a steep mountain-side by this same scheme. This ore averages a little less than two per cent. in copper, but so economical is the handling of it in such vast amounts that a neat profit is made above all mining, transportation and milling charges. When the red metal sells at thirteen cents per pound, the gross value of this ore is about $5.20 per ton. This mine has maintained an output of ten thousand tons or more per day over long periods.

At the Utah Copper Company's mine in Bingham Canyon, Utah, a large deposit of low-grade copper-bearing volcanic rock is being processed on a steep mountainside using this same method. This ore contains just under two percent copper, but because it’s handled so efficiently in such large quantities, a solid profit is generated after covering all mining, transportation, and milling costs. When copper sells for thirteen cents per pound, the gross value of this ore is about $5.20 per ton. This mine has consistently produced ten thousand tons or more each day for extended periods.

A famous gold mine in Queensland, Australia—the Mount Morgan—is also being worked by steam shovel methods. The deposit is here in the form of a small mountain and the operations are gradually razing this landmark to the level of the surrounding plains.

A famous gold mine in Queensland, Australia—Mount Morgan—is also being operated using steam shovel methods. The deposit appears as a small mountain, and the operations are gradually leveling this landmark to match the surrounding plains.

The mining of low-grade gold ores by open-pit methods has taken hold in America, [74] and an example of the practice may be found at the Wasp No. 2 mine in the Black Hills. According to published accounts of the operations of this company, all of the costs of mining and treating the ore amount to only $1.02 per ton. The ore body is a bed of quartzite lying nearly flat, and averaging in the neighborhood of only $2.50 per ton in gold, the only mineral of value. The recovery of this metal is at the rate of between 75 and 80 per cent. efficiency, or about $2 from each ton. The net profit is therefore close to one dollar per ton. This very modern scheme of mining has been made possible through the recent advances made in the cyanidation of ore, and it is going to pave the way for many more such mining plants.

The mining of low-grade gold ores using open-pit methods has become common in America, [74], and a good example of this is the Wasp No. 2 mine located in the Black Hills. According to reports about the operations of this company, the total costs for mining and processing the ore come to just $1.02 per ton. The ore body is a nearly flat bed of quartzite, averaging only about $2.50 per ton in gold, which is the only valuable mineral. The recovery rate for this metal is between 75 and 80 percent efficiency, yielding approximately $2 from each ton. Therefore, the net profit is close to one dollar per ton. This modern approach to mining has been made possible by recent advancements in the cyanidation of ore and is set to lead to many more mining operations like this one.

Steam Shovels and Churn Drills, Copper Flat, Ely.

Steam Shovels and Churn Drills, Copper Flat, Ely.

Steam Shovels and Churn Drills, Copper Flat, Ely, Nevada.

Steam Shovels and Churn Drills, Copper Flat, Ely, Nevada.

The Nevada Consolidated Copper Company has conducted vast mining operations "in the open" at Ely, Nevada, by the use of 95-ton shovels having a capacity of two and one-half cubic yards per dip. One shovel has handled as high as 2,800 cubic yards (the equivalent of about 5,500 tons) in nine hours; but this [75] must be recognized as an exceptional run, and cannot be taken as an average. The ore has a thickness of about 200 feet and covers many acres. As in the majority of such properties, there is here a large amount of "overburden" to be removed and disposed of before the ore can be excavated. This process of uncovering the ore body by the removal of the overburden is called "stripping." The cost per ton of ore mined is said to average 55 cents.

The Nevada Consolidated Copper Company has carried out extensive mining operations "in the open" at Ely, Nevada, using 95-ton shovels with a capacity of two and a half cubic yards per scoop. One shovel has moved as much as 2,800 cubic yards (approximately 5,500 tons) in nine hours; however, this [75] should be seen as an exceptional performance and not the norm. The ore is about 200 feet thick and spans many acres. Like most similar properties, there is a considerable amount of "overburden" that needs to be removed and dealt with before the ore can be mined. This process of exposing the ore body by taking away the overburden is referred to as "stripping." The average cost per ton of mined ore is reportedly 55 cents.

In an open mine there must be maintained a system of continually changing tracks placed upon grades (sometimes rather steep) and with sharp curves. With multiple switches, numbers of small locomotives are kept busy pulling and pushing up and down the tracks with their strings of loaded cars and replacing the "loads" with "empties." When such operations are upon a mountain-side, a very beautiful panoramic view may be had from the opposite side of the gulch.

In an open mine, there has to be a system of constantly changing tracks set on grades (sometimes pretty steep) and with sharp curves. With multiple switches, several small locomotives are kept busy pulling and pushing up and down the tracks with their strings of loaded cars and swapping the "loads" for "empties." When these operations happen on a mountainside, you can get a stunning panoramic view from across the gulch.

Generally, the ore material is disintegrated to some extent. In some cases, it [76] will actually crumble down before the advance of a steam shovel. In other mines, it is necessary to drill large holes which are loaded and blasted.

Generally, the ore material is broken down to some extent. In some cases, it [76] will actually break apart before the progress of a steam shovel. In other mines, it’s necessary to drill large holes that are loaded and detonated.

It is becoming more and more important for the active mining man to post himself upon the methods and economies of this latter-day mining practice. The development of this open or surface mining has introduced entirely new economic ideas. With no costs for timbering of mine passages, for ventilation, or for hoisting, and with a very material decrease in manual labor per ton mined, immense masses of rocks are now really ore, although a few years ago they were nothing but lean, country rock.

It’s increasingly important for active miners to stay updated on the methods and practices of modern mining. The rise of open-pit or surface mining has brought in completely new economic concepts. Without the costs associated with timbering mine passages, ventilation, or hoisting, and with a significant reduction in manual labor per ton of ore mined, huge amounts of rock that used to be considered worthless are now seen as valuable ore.

In consequence of the success attained by the pioneers in this kind of mining, there has been created a demand for properties possessing large deposits of low grade ore that is workable on this intensive scale. Copper properties have been holding a prominent place recently and stockbrokers carry regular lists of "Porphyries," this nickname having been coined to cover the companies operating [77] in the low grade porphyry ores of the Western United States. Not all of these porphyry companies will use surface mining methods. Some companies in the Globe District of Arizona have started extensive underground schemes for mining large tonnages very cheaply by "caving" methods. [78]

As a result of the success achieved by the pioneers in this type of mining, there is now a demand for properties with large deposits of low-grade ore that can be mined on this intensive scale. Recently, copper properties have been particularly important, and stockbrokers regularly maintain lists of "Porphyries," a term used to refer to the companies operating in the low-grade porphyry ores of the Western United States. Not all of these porphyry companies will use surface mining techniques. Some companies in the Globe District of Arizona have begun extensive underground operations to mine large quantities very cheaply using "caving" methods. [77] [78]

IX
CONSIDERATIONS PRECEDING
THE OPENING OF MINES.

The word "exploitation" is used by many mining men and engineers to signify a plan of so opening up ore deposits as to render the contents removable. The same persons use the word "mining" to mean the operations involved in the actual extraction of the ore exploited. It is sometimes difficult to draw any line between the meanings of these two words for, as handled by different men, with varying shades of intention, they are sometimes synonymous. Thus, if exploiting an underground mine, which carries ore right from the surface, means developing the mine in such a way as to provide for a large, steady production, it is difficult to see why the ore taken out in this process cannot be said to be "mined."

The term "exploitation" is commonly used by many miners and engineers to refer to a plan for opening up ore deposits to make the contents extractable. These same individuals use the term "mining" to describe the activities involved in the actual extraction of the exploited ore. It can be challenging to define a clear distinction between these two terms because, depending on who is using them and their varying intentions, they are sometimes used interchangeably. For example, if exploiting an underground mine that has ore accessible from the surface means developing the mine to ensure a large, consistent production, it's hard to understand why the ore removed in this process can't also be considered "mined."

By "dead work" is usually meant that work of opening up a mine which will put [79] or keep it in a producing condition but which does not supply any remuneration in the shape of ore (or coal). Again, as used by some men, there is little distinction between this work and exploitation. There may, however, be lines reasonably drawn between these three terms, and therefore the following definitions are proposed:

By "dead work," people usually refer to the activities involved in developing a mine that will either establish or maintain its production but doesn't generate any income in the form of ore (or coal). Additionally, some people don't make much of a distinction between this work and exploitation. However, it is possible to reasonably differentiate among these three terms, so the following definitions are suggested:

Dead work is such work as is necessary to develop an ore body, but it does not produce any ore. It may be prosecuted for drainage or ventilation purposes or for creating passage-ways for men and products.

Dead work refers to the type of work needed to develop an ore body, but it doesn't generate any ore. It can be carried out for drainage or ventilation purposes or for creating passageways for workers and materials.

Exploitation is also work performed in opening up or developing a property, but it does not contemplate the value of the extracted materials which may, or may not, be of any commercial importance. Indeed, much ore might be extracted during work which was carried on merely to define extents or boundaries of ore bodies. In this last supposition, the original sense of exploration is brought out and this should serve to fix the definition clearly in mind. [80]

Exploitation refers to the work done in discovering or developing a property, but it doesn't consider the value of the extracted materials, which may or may not have commercial significance. In fact, a lot of ore could be taken out during work that was solely aimed at identifying the size or limits of ore bodies. This last scenario highlights the original idea of exploration, which should help clarify the definition. [80]

Mining may be restricted to mean the methods and work involved in the profitable production of the mine's ore (or coal). The term would not be used to cover operations of shaft-sinking, tunneling, and the like, unless such work be in the valuable materials. Mining may be said to begin whenever there is produced an output upon which there is some profit. Exploitation may be in valuable ground. If so, we may say that mining is in progress during the exploitation. The driving of levels or drifts in an ore body—or of entries in a bed of coal—produces the valuable products of the mine, and we may, therefore, consider that mining is taking place.

Mining generally refers to the methods and work involved in the profitable extraction of ore (or coal) from a mine. The term doesn't typically include activities like shaft-sinking, tunneling, and similar tasks unless they are related to valuable materials. Mining can be considered to start as soon as there's an output that generates some profit. Exploitation can occur in valuable areas, and if that’s the case, we can say that mining is happening during the exploitation process. The development of levels or drifts in an ore body—or of entries in a coal seam—results in the valuable products of the mine, and so we can conclude that mining is indeed taking place.

The driving of a crosscut through barren rock to reach an ore body is dead work; but the driving of a drift or level in a vein is either exploitation or mining. Dead work produces no ore. Exploitation may, or may not, produce ore. Mining must produce ore.

The process of creating a crosscut through unproductive rock to access an ore body is considered unproductive work; however, creating a drift or level in a vein is either extraction or mining. Unproductive work generates no ore. Extraction may or may not result in ore. Mining is required to produce ore.

Throughout all of the above and the following discussion of this chapter, the reader should bear in mind the point that [81] the word "coal" may be substituted for the word "ore" without altering the substance of the definitions or the conclusions.

Throughout all of the above and the following discussion of this chapter, the reader should keep in mind that [81] the word "coal" can be replaced with the word "ore" without changing the meaning of the definitions or the conclusions.

Before a mine is opened up, the economist-manager will consider many items. In the first place, care must be exercised in the examination of the title to the property. A mineral property may have passed through the most complicated kind of transfers of fractional interests in the title, just as is true with ordinary real estate. The abstract must be traced back clear to the issuance of patent from the Government, and then on back to the original location. With an undeveloped property (a prospect), this precaution is essential to estop any possible pretensions to ownership, by outside parties, in case the ground subsequently turns out to be exceptionally valuable. It has often been the case that no obstructions from any adverse claimants have been met until owners have, in good faith and at great expense, developed splendid mines. Then suits for possession or partial ownership have been instituted, sometimes with marked success for the plaintiffs. There [82] are persons who make it a special line of business to examine titles to mining property, and it is economy for the average manager to employ such experienced men to attend to these matters.

Before a mine is opened, the economist-manager will consider many factors. First, it's crucial to carefully examine the title to the property. A mineral property may have gone through very complex transfers of fractional interests in the title, similar to regular real estate. The title history must be traced back to the original patent issued by the Government and then further back to the original location. For an undeveloped property (a prospect), this step is vital to prevent any potential claims to ownership from outside parties if the land turns out to be exceptionally valuable later on. It's not uncommon for owners to face no challenges from any adverse claimants until they have, in good faith and at significant expense, developed valuable mines. Then lawsuits for possession or partial ownership may be filed, sometimes with notable success for the plaintiffs. There are individuals who specialize in examining titles to mining properties, and it's cost-effective for the average manager to hire these experienced professionals to handle these issues.

Topographical considerations will hold a place in the study preceding the opening of a new mine. The nature of the surface of the property and the surrounding country will largely influence in the selection of the proper site for the mine's mouth. Neglect upon this point has been a common cause of failure in mining operations.

Topographical considerations will play an important role in the study before opening a new mine. The characteristics of the surface of the property and the nearby land will significantly affect the choice of the best location for the mine entrance. Overlooking this aspect has often led to failures in mining operations.

A mine opening must be away from all dangers of snow-slides, rock-slides, cloud-bursts and deluges from overflowing streams or breaking dams. It may make a difference in the mine's ventilation as to which direction the prevailing winds blow and therefore upon which side of a hill the mouth be opened.

A mine opening should be located away from any risks of snow slides, rock slides, sudden storms, and floods from overflowing rivers or broken dams. The ventilation of the mine can be affected by the direction of the prevailing winds, which means the entrance should be placed on the right side of a hill.

Transportation facilities must be given due thought. If means are not already at hand, one must inquire into the feasibility of constructing some form of carrier; and here, again, will enter the question of the surface's contour. If a railroad is out [83] of question, possibly an aerial tramway may be constructed. These modern conveyances stop at no obstacles of surface configuration and are dependent only upon the necessity of having the point of delivery lower in altitude than the point of loading at the mine. With some of the modern improvements in these installations, mine products are being transported up-hill as well as down-hill through the application of power. In mining regions, it is generally the case that the mines, themselves, are above the settlements in which are the railroads or treatment plants, so that the mine products will transport readily by the natural force of gravity.

Transportation facilities need careful consideration. If there aren’t any available options, it’s necessary to look into the possibility of building some kind of carrier; and here, once again, the shape of the land comes into play. If a railroad isn’t an option, maybe an aerial tramway can be built. These modern systems can overcome any surface obstacles and only require that the delivery point is lower than the loading point at the mine. With some of the latest advancements in these setups, mine products can now be transported uphill as well as downhill using power. In mining areas, it’s usually the case that the mines are situated above the towns where the railroads or processing plants are located, making it easy for the mine products to be moved by the natural force of gravity.

Climate holds an important place in the economics of mining. The working of very rich pieces of ground may prove a losing proposition in some portions of the world where the climatic conditions are such as to render operations possible during only a very small portion of the year. Extremes of heat or cold, malaria or other pestilential obstacles, long rainy seasons with floods, and the hostility of [84] native humans, beasts or insects have accounted for the abandonment of seemingly attractive mining projects.

Climate plays a crucial role in the economics of mining. Working rich deposits can turn out to be a bad investment in some areas where weather conditions only allow for operations during a very small part of the year. Extreme heat or cold, malaria or other disease-related challenges, long rainy seasons with flooding, and the hostility of [84] local people, animals, or insects have led to the abandonment of mining projects that once seemed promising.

The question of labor must be given due thought. It is true that the best miners on earth are Americans. We do not deny that many of our miners are of foreign birth, but the fact remains that they perform better and more intelligent service than do their fellow countrymen who have not been adopted into our country. Our men are in demand in the mining development of foreign countries. An American mine manager will always experience dissatisfaction while endeavoring to get, from natives in foreign parts, the same efficiency that he is accustomed to receive from the miners "at home." He may be paying a good deal less per capita for such labor, but he finds he is actually paying more per ton of output.

The issue of labor deserves serious consideration. It's true that the best miners in the world are Americans. We acknowledge that many of our miners were born abroad, but the reality is that they provide better and more skilled service than their fellow countrymen who haven’t become citizens here. Our miners are in high demand for mining projects in other countries. An American mine manager will always feel frustrated trying to get the same level of efficiency from local workers in foreign places that he expects from miners "back home." He might be paying significantly less per worker for that labor, but he discovers that he is actually spending more per ton of output.

Even within a single country, there are notable differences in the worth of labor. The natives of some of the Mexican states are far preferable to those of other states. Within the United States, there may be discerned material differences between the [85] efficiencies of the citizens of various sections, when it comes to mining. One cannot procure as competent miners in some of the agricultural states as in the typical mining states. This is but to be expected. For instance, there are deposits of lead ore in the "moonshine" regions of Kentucky which have never been successfully worked, and the real cause of failure, in the writer's belief, lies in the inability of superintendents to obtain real miners either in that region or from the outside. The residents will never become miners; outsiders will not enter for work under existing sociological conditions.

Even within a single country, there are significant differences in the value of labor. The people from some Mexican states are much more desirable than those from others. In the United States, you can see clear differences in the abilities of citizens from various regions, especially when it comes to mining. You can't find as skilled miners in some agricultural states as you can in typical mining states. This is to be expected. For example, there are lead ore deposits in the "moonshine" areas of Kentucky that have never been successfully mined, and I believe the main reason for this failure is that managers can't find skilled miners either locally or from elsewhere. The local residents will never become miners, and people from outside the area won't come to work under the current social conditions.

The question of unionism is sometimes held by managers as a deciding one when debating the opening of a mine. While there are those who will broadly denounce such organizations, there may be found other and just as successful mine operators who declare that the effects of union control over their miners are beneficial to their companies' interests. Probably the greatest objection to unionism raised by operators is that they resent the dictation that accompanies the inauguration [86] of union rules in their mines. The owners and managers prefer to run their own business to suit themselves. Some managers are so imbued with this conviction of their own rights that they will refuse to open up mines or, if they are operating, they will close down their mines before they will submit to the demands made upon them by the union officials.

The issue of unionism is often a key factor for managers when deciding whether to open a mine. While some people broadly criticize these organizations, there are also other successful mine operators who argue that having union representation for their miners actually benefits their companies. The biggest concern operators have about unionism is their resistance to the strict rules that come with establishing unions in their mines. Owners and managers generally prefer to run their businesses as they see fit. Some managers are so committed to this idea of their own rights that they will either choose not to open mines or, if they're already operating, shut them down rather than comply with the demands of union representatives.

On the other hand, there are mine managers who prefer the presence of some central, labor-controlling body; for they believe that the men who belong to such a large federation or organization will, and do, have less complaint to make and therefore work more freely than is the case with the independent laborers. The argument is that these union men are satisfied because they feel that their interests are being looked after with a sort of attention that they, individually, could not give.

On the other hand, some mine managers prefer having a central labor-controlling organization because they believe that workers in large federations or organizations tend to complain less and, therefore, work more freely than independent laborers. The argument is that these union members feel satisfied because they think their interests are being taken care of in a way that they couldn’t manage on their own.

This is not a place to discuss the crimes that have been laid at the doors of both the labor organizations and the mine owners' associations. It is safe to assume that wrong has probably been done by [87] both sides. But it is furthermore right to believe that most of the crimes were not authorized, nor recognized, by the officers or the majority of members of either side. Individual members must not be taken as averages of the membership in any kind of civil, social or political organization.

This isn’t the place to go into the crimes attributed to both the labor unions and the mine owners' groups. It's reasonable to assume that wrongs have likely been committed by both sides. However, it's also fair to think that most of the crimes were neither approved nor acknowledged by the leaders or the majority of members of either group. You can’t assume that individual members represent the average views of the membership in any civil, social, or political organization.

It seems entirely wrong that politics should enter into the considerations of a mine manager whose operations are apparently so apart from affairs of state; but the fact remains that there are places where mining operations cannot be carried on without the good will of certain officials of the state or national governments. It is not advisable to enter into any compromising terms to gain privileges for carrying on any legitimate business for there are other, better ways, generally, of attaining the justice that is deserved.

It seems completely wrong that politics should play a role in the thoughts of a mine manager whose work seems so separate from government issues; however, the reality is that there are situations where mining operations can't proceed without the support of specific state or national officials. It's not a good idea to engage in any compromising agreements to obtain privileges for conducting any legitimate business, as there are usually other, better methods for achieving the justice that is deserved.

One must not omit to investigate the sources of supply for all the needs of a mine and its camp. There are many kinds of materials needed to keep a mine going. Fuel, machinery, timber, water, food for [88] men and beasts, lumber, and all household furnishings and necessities must come from some markets or natural sources. It behooves the cautious manager to see that all these things may be had in ample amount and at figures which will not prove annihilating to his business.

One should not forget to look into the sources of supply for everything a mine and its camp need. There are various materials necessary to keep a mine running. Fuel, machinery, timber, water, food for [88] people and animals, lumber, and all household items and essentials must come from different markets or natural sources. It’s important for a cautious manager to ensure that all these supplies are available in sufficient quantities and at prices that won't be detrimental to the business.

In Utah, there are mines which have all their timbers framed in and shipped from the forests of Oregon, the sawing and framing being done before shipment to save on freight. The fir of Oregon is shipped to distant Australia for mining purposes. The arid camps of Nevada get their supplies of timber from the sister state, California. The Michigan mines are fortunate in being in a lumber region. Colorado's metal mines are more favored in the matter of timbers than are the coal mines of the same state. Most of the coal mines are upon the barren plains, while the metal mines are chiefly in the wooded mountains.

In Utah, there are mines that have all their timber framed and shipped from the forests of Oregon, with the cutting and framing done beforehand to save on shipping costs. The fir from Oregon is sent to far-off Australia for mining needs. The dry camps of Nevada get their timber supplies from neighboring California. The Michigan mines are lucky to be located in a lumber-producing area. Colorado's metal mines have better access to timber compared to its coal mines. Most coal mines are situated on the flat plains, while the metal mines are mainly found in the wooded mountains.

Mill of the Pittsburg-Silver Peak Gold Mining Co., Blair.

Mill of the Pittsburg-Silver Peak Gold Mining Co., Blair.

Mill of the Pittsburg-Silver Peak Gold Mining Co., Blair, Nevada.

Mill of the Pittsburgh-Silver Peak Gold Mining Company, Blair, Nevada.

Water may be too scarce for the needs of a mine or its community. There may not be sufficient to supply boilers or a mill, or for the domestic purposes of the [89] workers. On the other hand, water may be so abundant in the mine workings as to prove a deterrent factor in profitable operation. With shaft mines, having deep workings and low grades of ore, if water must be delivered mechanically, the costs for such drainage are frequently prohibitive of mining. Some mines, in arid regions, have been fortunate in striking such flows of underground water that it has been possible to operate mills right at the mines. In this way, the cost of water hoisting has been more than compensated in the milling benefits which, in turn, have decreased freights and treatment charges.

Water might be too limited for the needs of a mine or its community. There may not be enough to supply boilers or a mill, or for the daily needs of the [89] workers. Conversely, water might be so plentiful in the mine workings that it becomes a barrier to profitable operations. In shaft mines with deep workings and low ore grades, if water needs to be pumped out mechanically, the costs for such drainage are often too high for mining to be viable. Some mines in dry areas have been lucky enough to strike underground water flows that allow mills to operate right at the mines. This way, the costs of hoisting water have been more than offset by the milling advantages, which, in turn, have reduced freight and treatment charges.

Machinery is usually purchased at centres of mining supplies and manufactures. San Francisco, Los Angeles, Salt Lake City, Denver and Chicago are the principal rendezvous in the West for mining men in need of machinery. Mexico City is, similarly, the outfitting point for the mines of southern Mexico. The United States holds the supremacy of the world in the matter of equipping mines and mills, large orders of American-made [90] mining machinery being shipped to even the antipodes.

Machinery is typically bought at mining supply and manufacturing centers. San Francisco, Los Angeles, Salt Lake City, Denver, and Chicago are the main meeting spots in the West for miners who need equipment. Mexico City serves as the supply hub for the mines in southern Mexico. The United States leads the world in supplying mines and mills, with substantial orders of American-made [90] mining machinery being shipped to even the farthest corners of the globe.

The nearer a property is to a depot of supplies, the less is bound to be the cost of getting goods onto the ground. It is this last item—the delivery of goods—that must be recognized as a very pertinent, and sometimes a critical, factor upon the cost side of mining accounts. Mines that are remote or in rugged countries are frequently dependent upon animal transportation. In some cases, machinery going to the mines must be so built that it may be taken apart into small portions suitable for loading upon the backs of horses or burros, or even, in the Andes, upon the frail llamas.

The closer a property is to a supply depot, the cheaper it will be to get goods delivered. This delivery aspect should be seen as an important, and sometimes crucial, factor in mining costs. Mines that are isolated or in rough areas often rely on animal transport. In some situations, the machinery sent to the mines needs to be designed so that it can be disassembled into smaller parts that can be loaded onto the backs of horses or donkeys, or even, in the Andes, onto the delicate llamas.

Operations, if planned to be conducted for a long term of years and therefore warranting the installation of large and expensive plants, should be based upon the holding of extensive ore-bearing ground. Here enters the notion of the shape and size of a mining property.

Operations that are planned to last for many years and require the installation of large, costly plants should be based on holding extensive areas of ore-rich land. This brings us to the idea of the shape and size of a mining property.

With some kinds of mining ground, the best form for the holdings would probably be a compact, approximately [91] equilateral tract, covering a reasonably large acreage. This would be the case with ores that occur in sedimentary beds, for instance, where it is advisable to have the mining plant centrally located so as to work expeditiously the entire area. This would apply to a region like the Cripple Creek District, which contains innumerable veins running in all directions but displaying no outcrops.

With certain types of mining land, the ideal shape for the holdings would likely be a compact, roughly [91] equilateral area, covering a considerable amount of land. This is especially true for ores found in sedimentary layers, where it's best to have the mining facilities centrally located to efficiently work the entire region. This would be applicable to an area like the Cripple Creek District, which has countless veins running in every direction but shows no surface exposure.

In other instances, the most desirable shape might be long, narrow strips so laid off as to contain the strikes of persistent lodes or veins, as those of the wonderful Comstock Lode region. It is not acreage that counts here so much as lineal extent.

In other cases, the most desirable shape might be long, narrow strips arranged to capture the paths of consistent lodes or veins, like those found in the remarkable Comstock Lode area. It's not the acreage that matters here as much as the linear distance.

In the Transvaal, land is held in rectangular blocks. The first owners of the ground took it up for agricultural purposes. This same statement is also true of the mining properties in the Joplin District of Missouri and Kansas.

In the Transvaal, land is organized into rectangular blocks. The initial owners of the land took it for farming purposes. This same statement also applies to the mining properties in the Joplin District of Missouri and Kansas.

In the case of the South African properties, every company has definite boundaries to which operations may be planned. Hence it is possible for the management [92] to so plant any mine as to operate it at a given rate for a predetermined life of the enterprise. The work is planned to maintain a certain output that will exhaust the ore bodies in just so many years, and all the equipment may thus be purchased with the forecast that it will serve its purpose and perform its economic share within the prescribed time.

In the case of the South African properties, every company has clear limits within which operations can be planned. This allows management to set up any mine to operate at a specific rate for a predetermined duration of the business. The work is organized to maintain a certain output that will exhaust the ore bodies in a specific number of years, so all the equipment can be purchased with the expectation that it will fulfill its purpose and contribute its economic share within the set timeframe. [92]

This notion will be more readily understood when we consider the various types of ore bodies. With properties wherein there is no possible way of predicting the number, size, and worth of discoverable ore bodies, the life is wholly problematical and it is therefore difficult for a manager to decide how much he should expend in the initial equipment. [93]

This idea will be easier to grasp when we look at the different types of ore bodies. Given that there’s no way to predict the number, size, and value of the discoverable ore bodies, the situation is completely uncertain, making it hard for a manager to determine how much to invest in the initial setup. [93]

X
MINE OPENINGS.

In every new mining project, there is much to be considered concerning the expediency of opening up through shafts, inclines or adits. More attention has lately been given to this subject than formerly. There are very good reasons for the selection of any one of these kinds of mine openings.

In every new mining project, there’s a lot to think about regarding the practicality of accessing through shafts, inclines, or adits. Recently, more focus has been placed on this topic than in the past. There are solid reasons for choosing any of these types of mine openings.

The words shaft, incline, and tunnel have been handled with careless meanings by mining men. It is time that some definitions be accepted so that everybody will use these terms with the same meanings.

The terms shaft, incline, and tunnel have been used carelessly by people in mining. It's time to agree on some definitions so that everyone uses these terms with the same meanings.

A shaft has loosely been any steep opening sunk through the ground. An incline—sometimes spoken of also as an incline shaft—has been taken to mean an opening resembling a shaft, but not very steep and not approaching verticality. Right here, there has been too much latitude [94] of speech and it has entailed the necessity of many awkward explanations.

A shaft has generally been any steep opening dug into the ground. An incline—sometimes also called an incline shaft—refers to an opening that looks like a shaft but isn’t very steep and isn’t nearly vertical. Here, there has been too much flexibility in language, which has led to the need for many clumsy explanations. [94]

By a tunnel has been intended any (approximately) horizontal passageway driven from the natural surface. Objection to this use of the word rests in the strict definition of a tunnel, which states that it must have both ends open to the natural surface of the earth, as for example, an irrigation or a railroad tunnel. A level passageway which has but one end open to daylight is not properly spoken of as a tunnel. In mining practice, practically every horizontal opening of this nature is open at only one end, and it is an adit rather than a tunnel. If the precaution of speaking of it as a "mining tunnel" is observed, very well, for this may be taken to be an expression synonymous with adit. The latter term is, however, shorter and more correct.

By a tunnel, we mean any (approximately) horizontal passageway that is made from the natural surface. The objection to this usage of the word comes from the strict definition of a tunnel, which states that it must have both ends open to the natural surface of the earth, like an irrigation or a railroad tunnel. A level passageway that has only one end open to daylight isn’t correctly referred to as a tunnel. In mining practice, nearly every horizontal opening of this type is open at just one end, and it’s an adit rather than a tunnel. If we make the effort to refer to it as a "mining tunnel," that’s fine, as it can be understood as synonymous with adit. However, the latter term is shorter and more accurate.

For the sake of a uniform usage, the following definitions are proposed. Their use will conform with the usages of those well-informed persons who adhere to correct speech.

For the sake of consistent usage, the following definitions are proposed. Their use will align with the practices of those knowledgeable individuals who follow proper language.

A shaft is a truly vertical mine passage [95] which may, or may not, be sunk in or along an ore or a coal body.

A shaft is a completely vertical mine passage [95] that may or may not be drilled into or along an ore or coal deposit.

An incline is any mine passage which occupies a sloping position and which may, or may not, maintain a uniform inclination throughout its length. It may be sunk along, or in, a pitching vein or seam and it may thus conform to the irregularities of the dip of such body. It is neither horizontal nor vertical. Such an inclined passage following a seam of coal is known as a slope.

An incline is any mine passage that is sloped and may or may not have a consistent angle throughout its length. It can be dug along or within a tilted vein or seam, adapting to the irregularities of that body. It is neither flat nor straight up and down. An inclined passage that follows a coal seam is referred to as a slope.

It sometimes happens, especially in coal mining, that a sloping passageway is driven through barren rock either to get at known bodies by the shortest means or to establish uniform grades for tracks. In a strict sense, these are not inclines or slopes, for they do not even approximately follow, nor parallel, bodies of value. The miner's term for such an opening is rock slope.

It sometimes happens, especially in coal mining, that a sloping passageway is created through barren rock to reach known deposits in the shortest way possible or to establish a consistent grade for tracks. Strictly speaking, these are not inclines or slopes, because they don’t closely follow or run parallel to valuable deposits. The miner's term for such an opening is rock slope.

An adit or mining tunnel is a horizontal opening driven from the surface. If it be driven along an ore body, as a vein, it is properly called a vein adit; if it is driven across barren country to intercept presumed [96] or known bodies, it is spoken of as a crosscut adit. All adits must be given a small amount of grade for drainage necessities.

An adit or mining tunnel is a horizontal opening created from the surface. If it follows an ore body, like a vein, it's called a vein adit; if it is constructed across unproductive land to reach expected [96] or known deposits, it’s referred to as a crosscut adit. All adits need a slight slope for drainage purposes.

Before getting underground we should consider what is required in the way of opening our mine; what is positively known about our body of coal or ore; and what conditions are liable to confront us later on. We must consider the type of ore body; character of material to be extracted; average thickness and hardness of the body; desired tonnage; power facilities; probable surface and underground drainage to be maintained; and dozens of other things which only the experienced man will think of and appreciate. The right kind of a manager will know that he cannot afford to overlook such points.

Before we go underground, we need to think about what’s required to open our mine; what we definitely know about our coal or ore deposits; and what challenges we might face later. We should consider the type of ore body, the nature of the material to be extracted, the average thickness and hardness of the deposit, the desired tonnage, power availability, likely surface and underground drainage issues, and many other factors that only someone with experience will consider and understand. A good manager will realize that they can’t afford to ignore these points.

Every case involves different contingencies, and therefore extreme forethought must be given to the subject before deciding upon any particular kind of an opening into the ground for mining purposes. This remark does not apply to such openings as prospect drill-holes, openings [97] which are not for mining purposes, but for exploitation. Assuming that sufficient data are known concerning the property to warrant the expenditures incident to the making of a mine, the question remains as to the best way of proceeding.

Every situation has unique factors, so we need to think carefully about the topic before choosing a specific type of opening in the ground for mining. This comment doesn't apply to openings like prospect drill-holes, which are not intended for mining but for exploration. If we have enough information about the property to justify the costs involved in creating a mine, the next question is how to move forward best.

It is a well-established fact that it is much cheaper to drive an adit than to sink a shaft of equal transporting capacity. It is also cheaper to drive an adit than to sink an incline. If the topography is such that an adit can be driven into or beneath an ore body and thus expose it from a low elevation, the temptation is strong and along lines of good practice to do so. If the country is quite flat or nearly so, or, if the surface is such that, while rough, an adit of reasonable length cannot be driven to tap the valuable mineral and handle it economically, then it is good practice to decide upon a shaft mine.

It’s a well-known fact that it’s much cheaper to create a horizontal tunnel (adit) than to dig a vertical shaft with the same transporting capacity. It's also more economical to create an adit than to dig an inclined tunnel. If the land allows for an adit to be dug into or below an ore body, making it accessible from a lower elevation, there’s a strong incentive and good practice to proceed. However, if the terrain is mostly flat or if the surface is too rough to effectively create a reasonable length adit to reach the valuable minerals efficiently, then opting for a shaft mine is the better choice.

An adit will not only be cheaper, foot for foot, than a shaft or incline, but, if given the proper, slight grade, it will afford a natural drainage outlet for all subsequent workings above its level. The [98] cost of pumping, as already suggested, may be a considerable item and it may be a deciding factor in favor of an adit when this form of opening is possible.

An adit will not only be cheaper, foot for foot, than a shaft or incline, but if it has the right slight slope, it will provide a natural drainage outlet for all future work above its level. The [98] cost of pumping, as mentioned earlier, can be a significant expense and may be a key factor in favor of choosing an adit when this type of entry is feasible.

Furthermore, an adit will obviate the installation and use of hoisting machinery, and thus there may be maintained a greater efficiency in the operating expense of the mine than would be possible with a shaft.

Furthermore, a tunnel will eliminate the need for hoisting machinery, which could lead to greater efficiency in the operating costs of the mine compared to using a shaft.

Again, it is a simpler and cheaper matter to maintain a mining tunnel in working shape than it is a shaft, particularly in bad ground. By the settling or "working" of the ground, a shaft may be thrown perhaps but slightly out of alignment and annoying interferences will be experienced in hoisting, especially when rapid and uninterrupted hoisting is necessary to maintain the desired output. While the same amount of disturbance does take place in an adit, it is an easy matter to readjust track grades while continuing regular haulage operations.

Again, it’s easier and cheaper to keep a mining tunnel functional than a shaft, especially in tough ground. Due to the settling or “working” of the ground, a shaft might get a bit misaligned, causing frustrating issues during hoisting, particularly when fast and smooth hoisting is needed to meet production goals. Although the same level of disturbance happens in a tunnel, it’s straightforward to adjust the track grades while still carrying out regular hauling operations.

The timbers, in the case of either a shaft or an adit, will require occasional renewal, but the expense of such repairs is less in [99] adits than in shafts or inclines, while the delay to other operations of mining, in the case of the adit, will be inappreciable.

The beams, whether it's for a shaft or an adit, will need to be replaced from time to time, but the cost of these repairs is lower in [99] adits than in shafts or inclines. Additionally, the impact on other mining activities when it comes to the adit will be minimal.

Topography has been referred to above, but it must be again briefly mentioned. There are some places in which ore bodies extend to, or exist at, such depths that adits could not be projected to get beneath enough of the ore to warrant their construction. An adit mine is not a practicable thing in a flat country like Nevada or the Rand, but in the rough country of the San Juan it is the customary kind of a mine. In the very early days of Comstock Lode mining, shafts were sunk by each of the hundreds of companies. Before a great while, the advantages that would accrue from having a deep "tunnel" became evident, and the famous Sutro Tunnel, with its historic, checkered career, was driven. Although it loomed up like a gigantic undertaking for that period, the immense prospective or future value of it could not be denied.

Topography has been mentioned earlier, but it’s worth bringing up again briefly. There are some areas where ore bodies reach such depths that it wouldn’t be feasible to create adits deep enough to make their construction worthwhile. An adit mine isn’t practical in a flat region like Nevada or the Rand, but in the rugged terrain of San Juan, it's the usual type of mine. In the early days of Comstock Lode mining, shafts were dug by each of the hundreds of companies. Before long, the benefits of having a deep "tunnel" became clear, leading to the creation of the famous Sutro Tunnel, which has a historic and tumultuous background. Although it seemed like a massive project for that time, the enormous prospective value of it was undeniable.

The following relative advantages of the several types of mine mouths are in [100] addition to those already given and are worth consideration:

The following relative advantages of the different types of mine entrances are in [100] addition to those already mentioned and are worth considering:

With an incline, the value of a tabular deposit is determined as work progresses; the course and dip of the body will be known at all depths along the incline; the body may be explored from the incline in both directions, simultaneously, with a resulting doubling of the development and production; all, or nearly all, the material removed is "vein stuff" and its value may repay the sinking expenses; there is no losing of the ore body unless a geological fault is met.

With a slope, the value of a flat deposit is figured out as work continues; the shape and angle of the deposit will be understood at all depths along the slope; the deposit can be explored from the slope in both directions at the same time, resulting in increased development and production; almost all of the material extracted is "vein stuff," and its value might cover the costs of sinking; there is no loss of the ore body unless a geological fault is encountered.

With a shaft, more rapid hoisting is possible than with an incline; the timbering labor is less than in the case of an incline, but greater than in the case of an adit; with ground containing ore bodies in irregular masses and at no uniform intervals, vertically or horizontally, stations and levels may be started wherever desirable; the crosscuts which are usually necessary to reach the bodies may disclose otherwise unknown bodies.

With a shaft, hoisting is faster than with an incline; the labor for timbering is lower than with an incline, but higher than with a tunnel; in ground that has ore bodies in irregular shapes and at uneven distances, both vertically and horizontally, stations and levels can be established wherever needed; the crosscuts that are typically required to access these bodies may reveal other previously unknown ones.

Mills and Shaft House of Daly West Mine, Park City, Utah.

Mills and Shaft House of Daly West Mine, Park City, Utah.

Mills and Shaft House of Daly West Mine, Park City, Utah.

Mills and Shaft House of Daly West Mine, Park City, Utah.

With a vein adit, the vein is prospected as work advances; the ore removed may [101] pay its own way, as it were; the drainage is automatic; ore is transportable from the mine by haulage rather than by hoisting; the ore in place is above the level and will handle itself to the outgoing passage by gravity.

With a vein adit, the vein is explored as work progresses; the ore extracted can effectively cover its own costs; the drainage happens naturally; ore can be transported from the mine through hauling instead of hoisting; the ore in place is above the level and will move to the exit passage by gravity.

With a crosscut adit, in addition to the last three advantages noted for the vein adit, there is bound to be exploration of the ground upon at least one side of the known body; there will generally be easier haulage because of the straighter track, since an adit driven along a vein will conform to the geological irregularities and the track is bound to be more or less crooked.

With a crosscut adit, besides the last three benefits mentioned for the vein adit, there will definitely be exploration of the area on at least one side of the known deposit; usually, it will be easier to transport materials because of the straighter path, since an adit built along a vein will follow the geological irregularities and the path will likely be more or less winding.

Without counting upon the doubtful success of the numerous propositions in tunneling machines, but judging only from past experiences, we may say that a shaft will cost about three times as much as a "tunnel" of equal transporting capacity. If the ground is wet, the discrepancy in first costs becomes much larger. In a remote region, with difficult transportation of machinery and fuel, it may be better to drive and use a long adit [102] rather than a shallow shaft. An adit will transport more product than will a shaft of equal dimensions.

Without relying on the uncertain success of various tunneling machine proposals, but judging solely by previous experiences, we can say that a shaft will cost about three times as much as a “tunnel” with the same transporting capacity. If the ground is wet, the cost difference becomes even greater. In a remote area, where it's hard to transport machinery and fuel, it might be better to create and use a long tunnel rather than a shallow shaft. A tunnel will transport more product than a shaft of the same size. [102]

An adit may be driven to intercept a shaft and to serve as a sort of artificial surface, as it were, and thus save expenses in pumping and in hoisting up to the original collar of the shaft at the surface of the ground.

An adit can be created to connect with a shaft and act as an artificial entry point, essentially reducing costs related to pumping and hoisting back to the original opening of the shaft at ground level.

No matter how crooked an incline may be, it is possible to hoist ore in conveyances known as skips, although the hoisting may be necessarily somewhat slow. These same conveyances are useful for lowering and hoisting men, and the parody, "Men go down to the mine in skips," here finds its significance. The usual hoisting conveyances used in shafts are known as cages. They usually produce less friction than do incline skips. A skip in an incline must travel upon a track, while a cage, somewhat resembling a passenger elevator, has no wheels, but slides upon guides. However, an incline skip, because of the inclination of the passage, does not exert the same dead weight upon the cable and hoisting [103] engine and hence these parts of the equipment may be made correspondingly lighter. Skips for shafts are similar to cages in their lack of wheels.

No matter how steep the slope may be, it's possible to lift ore using containers called skips, although the lifting process might be a bit slow. These same containers are also handy for lowering and raising people, which gives meaning to the saying, "Men go down to the mine in skips." The typical lifting equipment used in shafts is known as cages. They generally create less friction than incline skips. A skip on a slope must run on a track, while a cage, which is somewhat like a passenger elevator, has no wheels and slides along guides. However, an incline skip, due to the slope of the passage, doesn't put the same weight on the cable and hoisting engine, so these parts of the equipment can be made lighter. Skips for shafts are similar to cages in that they don't have wheels. [103]

Complete estimates of probable future requirements should be made before a shaft is sunk. When it becomes necessary to enlarge a single-compartment shaft to one with two compartments, the expense has been found to exceed one-half the original cost of sinking; while, to convert a one-compartment shaft into a three-compartment shaft costs fully three-fourths of the original sinking expense. Approximately the same ratios of cost will hold in the case of enlarging inclines.

Complete estimates of likely future needs should be made before a shaft is dug. When it becomes necessary to expand a single-compartment shaft to one with two compartments, the expense has been found to exceed half of the original cost of digging; while converting a one-compartment shaft into a three-compartment shaft costs about three-quarters of the original digging expense. Approximately the same cost ratios will apply when enlarging inclines.

Character of ore sometimes influences the selection of the kind of passageway. Some high grade, brittle ores must not be dumped nor handled repeatedly, since values are lost in the "fines." Iron and copper ores will not probably be injured by any amount of dumping. Coal should be handled as few times as possible. In view of this fact, other things being equal, adopt that system that will injure the ore or coal the least. [104]

The type of ore can sometimes affect the choice of passageway. Some high-grade, brittle ores should not be dumped or handled repeatedly because the valuable particles can be lost in the "fines." Iron and copper ores are likely not to be harmed by dumping. Coal should be handled as few times as possible. Considering this, all other factors being equal, choose the system that will cause the least damage to the ore or coal. [104]

As a rule, workmen are safer in tunnels than in shafts, since there is little danger from objects falling any great distance. Tiny bits of rock have been known to kill men in shafts. On the other hand, there is less liability of injury from falls of large rocks in shafts than in adits. Roof falls are a very prolific source of mine accidents.

As a rule, workers are safer in tunnels than in shafts, since there’s little risk of objects falling from significant heights. Small pieces of rock have been known to kill people in shafts. However, there’s less chance of injury from large rock falls in shafts than in adits. Roof collapses are a major cause of accidents in mines.

The workmen of neighboring mines will often be able to give much valuable information as to the proper procedure in opening a new property. For instance, water levels, amounts and kinds of gases that may be expected, the nature of the wall rocks, and other pertinent points may be learned by interviewing the men who are employed in adjacent mines. Still better information may be obtained by personal visits to the underground workings of the nearby mines. In this connection, one must not permit himself to be unduly influenced by the prejudices or hobbies of the neighboring operators or their employés if there is reason to suppose that such notions are contrary to good practice. [105]

The workers from nearby mines can often provide valuable insights on the best ways to open a new site. For example, they can share information about water levels, the types and quantities of gases that might be encountered, the characteristics of the surrounding rocks, and other relevant details by talking to those employed in adjacent mines. Even better information can be gathered by personally visiting the underground operations of these nearby mines. In this regard, one must be cautious not to be overly swayed by the biases or personal interests of local operators or their workers if there's reason to believe those views contradict good practices. [105]

Due consideration must always be given to the selection of some method of opening up what might be supposed will never amount to a great mine, so that, should subsequent disclosures exceed expectations, enlargement of the scale of operations can be advantageously effected. Always bear in mind that legitimate mining is just as much a commercial enterprise as is any other kind of business. The utmost concern for financial showings must be constantly borne in mind. Select a scale of operations consistent with the known—not the hoped-for—bodies of coal or ore; but have a certain feature of elasticity about the plans that may take care of future increase in business if found desirable. Do not "over-plant." Never plant, at all, prematurely. It is better to postpone the installation of the equipment until some specific facts are available. Many companies have met defeat in the exhaustion of capital through the purchase and installation of elaborate plants which were never warranted.

Due consideration must always be given to choosing a method for exploring what may not seem like a significant mine, so that if future discoveries exceed expectations, the scale of operations can be expanded effectively. Always remember that legitimate mining is just as much a business venture as any other kind of enterprise. Constant attention to financial performance is essential. Choose a scale of operations that aligns with known—not just hoped-for—amounts of coal or ore; however, ensure that your plans have some flexibility to accommodate future business growth if necessary. Do not "over-invest." Never invest at all, prematurely. It’s better to delay the installation of equipment until specific facts are available. Many companies have faced failure due to exhausting their capital by purchasing and installing complex plants that were never justified.

After a mine is once opened and preparations have all been perfected to operate [106] upon a certain scale of output, it is quite essential that exploitation and production be maintained without material fluctuations, if the greatest economy is to be attained. Exploitation, i.e., development work, must be kept well in advance of actual mining operations to assure plenty of working space for the extraction of the normal output. [107]

After a mine is opened and everything is set up to operate [106] at a certain level of output, it’s really important to keep exploitation and production steady without significant fluctuations to achieve maximum efficiency. Exploitation, i.e., development work, should be well ahead of the actual mining operations to ensure there’s enough workspace for normal output extraction. [107]

XI
TYPES OF ORE BODIES.

It has been necessary, a number of times in this discussion, heretofore, to make mention of kinds of ore bodies. It is well, at this time, to get some fixed ideas concerning the leading types of bodies of minerals which are extracted as ores.

It has been necessary, several times in this discussion so far, to mention types of ore bodies. It's a good time now to establish some clear concepts about the main types of mineral bodies that are extracted as ores.

Because of the laxity in type differentiation which has prevailed among miners and writers, the same geologists who have framed definitions of ore, have also defined the various types of ore bodies. The definitions, having been accepted by the leading mining geologists and engineers of the present day, it is well for us to fall into line and to agree with the authorities in such matters.

Due to the lack of clear distinctions in types among miners and writers, the same geologists who have created definitions for ore have also identified the different kinds of ore bodies. Since these definitions have been accepted by today's leading mining geologists and engineers, it’s a good idea for us to align ourselves with the authorities on these matters.

A vein is a single, ore-bearing fissure, generally, though not necessarily, with at least one well-defined wall.

A vein is a single, ore-bearing fissure, usually, but not always, with at least one clearly defined wall.

When we run across a tabular-shaped deposit of ore that looks as though it may [108] have been put into a pre-existing fissure or chasm, the chances are that it is a vein. But a vein must not be confounded with a dike. A dike is a filling that has been injected, while molten or fluid, into an open passageway or rupture across rocks, or into an opening which it created for itself. A little examination of the material should tell, to even the novice, whether or not the substance is of plutonic origin. The filling of a vein is not eruptive, at all. Veins have been filled from circulating aqueous solutions, by slow depositions, that have occupied very long periods.

When we come across a flat-shaped deposit of ore that seems to have been placed into an existing crack or gap, it’s likely a vein. However, a vein shouldn’t be confused with a dike. A dike is a filling that has been injected, while molten or fluid, into an open passageway or break in the rocks, or into an opening it created on its own. A quick look at the material should reveal, even to a beginner, whether the substance is of deep-earth origin. The filling of a vein isn’t eruptive at all. Veins have been filled by circulating water solutions through slow depositions that took very long periods.

A vein may be any thickness, since a fissure may have been opened to any width. Hence, a vein may be as thin as a sheet of paper, or it may be a hundred feet across. However, it is true that some wide veins have resulted by a sort of enlargement from original thin seams. Very few of the notable wide veins of the world are believed to have been created by the filling up of chasms originally as wide as the present ore bodies. But, in all cases of real veins, there were original fissures, [109] fractures or crevices which acted as channels for circulating solutions that contained the materials which were left to make the vein matter.

A vein can vary in thickness, as a fissure can be opened to different widths. So, a vein can be as thin as a piece of paper or as wide as a hundred feet. However, it's true that some wide veins have developed from originally thin seams. Very few of the famous wide veins in the world are thought to have formed by filling chasms that were originally as wide as the current ore bodies. But in all cases of true veins, there were original fissures, fractures, or crevices that served as channels for circulating solutions containing the materials that formed the vein matter. [109]

A lode is an assemblage of veins so closely spaced that the ground between the veins becomes, in places, ore-bearing, and the entire width of the aggregation becomes an ore body.

A lode is a collection of veins that are so tightly packed that the space between them turns into, in some areas, ore; and the full width of this grouping becomes an ore body.

A zone of sheeted rocks like schist or slate, if sufficiently mineralized to warrant mining, would be a lode. Sometimes, in certain districts, the earth's crust has been subjected to many approximately parallel, closely-spaced fractures, and by the subsequent filling of these cracks, with the accompanying corrosion of the walls and their replacement by ore, extraction of the entire mass of rocks across a considerable distance will be found to yield a profit. Any such body is a lode.

A section of layered rocks like schist or slate, if it's rich enough in minerals to be worth mining, would be considered a lode. In some areas, the earth's crust has experienced many nearly parallel and closely spaced fractures. When these cracks are filled in, along with the erosion of the walls and their replacement by ore, extracting the whole mass of rock over a long distance can result in a profit. Any such formation is a lode.

In the Cripple Creek District, the ground is criss-crossed in every direction by tiny fissures which have resulted from the contraction of the country rock, just as a bed of mud is fissured in the process of drying up after a rain. Wherever these [110] fissures are found in aggregates that are closely spaced and in which a majority of the cracks have a general trend so that the whole assemblage can be readily worked as one mass, this whole body of fractured rock may be found worth mining and it will then constitute a lode. It may be mentioned here that the so-called ore of this district is not really ore according to the accepted definition. The true ore, the filling of these innumerable, tiny cracks, really constitutes but about five per cent. of the material that is shipped as ore, but which is principally the "country rock" broken down with the small volume of ore.

In the Cripple Creek District, the ground is marked by tiny cracks in every direction, which have formed from the shrinkage of the surrounding rock, similar to how a bed of mud develops cracks while drying after rain. Whenever these [110] cracks are grouped closely together, and most of them follow a general pattern, the entire area of shattered rock can be considered worth mining, forming a lode. It's important to note that what is referred to as the ore in this district isn’t actually ore by the standard definition. The real ore, which fills these countless tiny cracks, makes up only about five percent of the material that gets shipped as ore, while the majority is just the "country rock" that has been broken down along with a small amount of ore.

In legal phraseology, the word lode has come to include all sorts of ore bodies. When the word is thus used, in a legal sense, it should not be confused with the strictly technical meaning.

In legal terms, the word lode has come to refer to all types of ore bodies. When used this way, in a legal context, it shouldn’t be confused with its strictly technical meaning.

It has been the fashion for prospectors to dilate upon the fact that they have located "true fissure veins." This expression, formerly on the tongues of most mining men in districts possessing veins at all, is now obsolete and hence should [111] be placed in the discard. There can be no such thing as an "untrue" vein nor an "untrue" fissure. Neither can there be any vein without a fissure. Therefore, if there is any vein, it must be a real or true vein. Accordingly, the verbiage is to be discouraged. The intention of a miner, in using this pet phrase, has been to convey the impression that his vein extended downward, indefinitely; there having arisen a notion that some veins are rather superficial and liable to "peter out" at slight depths, while others—the kind he invariably has located—persist both in size and value to extreme depths.

Prospectors often like to talk about how they've found "true fissure veins." This term, which used to be common among mining folks in areas with veins, is now outdated and should be discarded. There’s no such thing as an "untrue" vein or an "untrue" fissure. Also, a vein can't exist without a fissure. So, if there's a vein, it has to be a real or true vein. Therefore, this jargon should be discouraged. When miners use this phrase, they usually want to suggest that their vein goes down indefinitely; there's a belief that some veins are pretty shallow and might "peter out" at shallow depths, while others—the ones they typically claim to have found—continue in size and value at great depths.

There are districts in which are found short fissures, generally confined to certain horizons in sedimentary rocks, such as the limestones of the great Mississippi Valley, from which are mined lead and zinc ores. These are called "gash veins." These are always readily recognized and there is not the slightest excuse for confusing them with the fissures which are common to other kinds of rock formations.

There are areas where you can find short cracks, usually limited to specific layers in sedimentary rocks, like the limestones in the Mississippi Valley, where lead and zinc ores are mined. These are referred to as "gash veins." They are always easy to identify, and there's absolutely no reason to confuse them with the cracks found in other types of rock formations.

A bed or blanket vein is the term applied [112] to any nearly flat deposit conforming to the bedding. Such a body of ore must be in a sedimentary series of rocks. Coal bodies are all of this type. Many bodies of iron ore are also of this type.

A bed or blanket vein refers to any mostly flat deposit that follows the layering of rocks. [112] This type of ore body has to be found in a sedimentary rock formation. Coal deposits fall into this category. Many iron ore deposits are also classified this way.

A chimney is an ore body which has not the tabular form of a vein but is rudely elliptical in outline, horizontally, and with a very considerable vertical extent. A stock is a similar body but it is of still greater irregularity of boundary.

A chimney is a mineral deposit that doesn’t have the flat shape of a vein but is roughly elliptical in shape from the side and has a significant vertical depth. A stock is a similar type of deposit but has even more irregular boundaries.

These bodies are usually the filling of extinct volcanoes or geysers, and therefore they are presumed to extend to very great depths. The diamond mines of Kimberly, Africa, are of this type and the ore is a sort of hardened geyserite or mud in which are enclosed the precious gems. In Custer County, Colorado, the ore body of the Bassick Mine is a conglomerate of rounded boulders of all sizes cemented together, somewhat like concrete, by the materials which really carry the values. This mass occupies an ancient volcanic neck or throat of a geyser, probably the latter. The main portion of the Cripple Creek District is [113] the crater of a great prehistoric volcano. It might be called a great chimney, but custom seems to limit the use of the word chimney to a smaller body such as might be included in a single mining property.

These formations are typically the remnants of extinct volcanoes or geysers, so they are thought to reach very deep underground. The diamond mines in Kimberly, Africa, are examples of this type, where the ore consists of a hardened geyserite or mud that contains precious gems. In Custer County, Colorado, the ore body of the Bassick Mine is made up of a mix of rounded boulders of various sizes that are cemented together, somewhat like concrete, by the materials that hold the value. This mass is located in an ancient volcanic neck or the throat of a geyser, likely the latter. The main part of the Cripple Creek District is [113] the crater of a massive prehistoric volcano. It could be referred to as a large chimney, but the term "chimney" is generally reserved for smaller formations that might be found within a single mining property.

A mass is a deposit whose irregularity of shape is so great that it cannot be recognized as belonging to any of the types already mentioned. Masses conform to no rules as to shape or size. They are usually the result of a chemical dissolving of the original barren rocks with a simultaneous or subsequent substitution of valuable materials. There are many instances of ores that have been deposited, molecule by molecule, replacing equal volumes of the previous rock, much upon the order of the petrifaction of wood. Again, there are immense masses which are believed to have accumulated in caves already dissolved out of the containing rocks.

A mass is a deposit whose shape is so irregular that it can't be classified into any of the types mentioned earlier. Masses follow no specific rules regarding their shape or size. They typically result from a chemical process that dissolves the original barren rocks while simultaneously or subsequently replacing them with valuable materials. There are many examples of ores that have been deposited, molecule by molecule, taking the place of equal volumes of the previous rock, similar to how wood is petrified. Additionally, there are huge masses believed to have formed in caves that have already been dissolved out of the surrounding rocks.

While recent geological study of the districts in which such ore bodies abound have disclosed numerous facts about their occurrence, there still remains much conjecture concerning their origins, and we [114] may still believe that they do not conform to any rules as to regularity or size. The ore bodies of Leadville are of this type, and they may be described by the homely similes that they are as like and as unlike, and their occurrences are about as regular, as potatoes in a hill. The potato-tops give the farmer a suggestion as to where to dig. So, also, do certain geological relations guide the miner. And yet a shaft may be sunk hundreds of feet down among masses and not happen to penetrate a single one.

While recent geological studies of the areas with abundant ore bodies have revealed many facts about their occurrence, there is still a lot of speculation about where they come from, and we [114] can still think that they don't follow any specific rules regarding regularity or size. The ore bodies in Leadville are like this, and they can be described with the down-to-earth analogy that they are both similar and different, and their occurrences are about as regular as potatoes in a hill. The potato plants give the farmer a hint about where to dig. Similarly, certain geological features help guide the miner. Yet, a shaft can be drilled hundreds of feet down through masses without actually hitting a single one.

There are numerous recognized types of ore body not enumerated here; but it is sufficient for the average layman in mining matters to understand these few distinct types and to believe that all other types are rarities, and are, as a general thing, but intermediate forms of those defined.

There are many known types of ore bodies not listed here; however, it's enough for the average person interested in mining to understand these few distinct types and to think of all other types as rare, generally being just intermediate forms of those defined.

Shaft No. 3, Tamarack Mining Company, Calumet.

Shaft No. 3, Tamarack Mining Company, Calumet.

Shaft No. 3, Tamarack Mining Company, Calumet, Michigan.

Shaft No. 3, Tamarack Mining Company, Calumet, Michigan.

Smeltery of the Balaklala Consolidated Copper Co.

Smeltery of the Balaklala Consolidated Copper Co.

Smeltery of the Balaklala Consolidated Copper Co.,
Coram, California.

Smeltery of the Balaklala Consolidated Copper Co.,
Coram, California.

XII
THE QUESTIONS OF DEPTH AND
GRADES OF ORE.

The prevailing belief of a few years ago that ore bodies always improve with depth has been discredited. Not a single mining geologist will longer maintain such a notion. The evidence of many thousands of mines has refuted this older belief and it has been proven that quite the opposite view is the correct one concerning changes of value with depth. Values, instead of getting better, do actually, in the majority of cases, grow poorer as depth is gained.

The common belief from a few years ago that ore bodies always get better with depth has been proven wrong. Not a single mining geologist holds that view anymore. The evidence from thousands of mines has disproven this outdated belief, showing that the opposite is true regarding value changes with depth. In most cases, values actually decrease as you go deeper.

President C. R. Van Hise, of the University of Wisconsin, was among the early expounders of the newer theories to account for this fact. The writer heard him state, years ago, before a scientific gathering (which, at that time, was not quite ready to agree with him), that if he were given his choice, he would much prefer to own the upper thousand feet of the earth's crust than all the rest of the [116] globe. In this remark, he was referring only to mineral values, of course.

President C. R. Van Hise of the University of Wisconsin was one of the early proponents of the newer theories to explain this fact. I heard him say years ago, at a scientific gathering that wasn't quite ready to support him, that if he had the choice, he would rather own the upper thousand feet of the earth's crust than all the rest of the [116] globe. In this statement, he was only talking about mineral values, of course.

This belief that the best values are to be found not far from the surface has since become popular, for it is based upon proven facts. It is not claimed that values are never mined below an elevation that is a thousand feet from the surface. There are many mines, and great ones, too, that are operating at depths greatly exceeding this distance; but in these same mines there will be found valid reasons for not applying the general statement to their particular cases. For instance, the great copper mines of the Keweenaw Peninsula are productive at depths of a mile or more from the surface; but we believe that here the ore must have been originally deposited at, or near, the surface, that it was then overlain with rock strata; and subsequently steeply tilted by earth movements which carried some of the ore bodies down to the depths where they are now found.

This idea that the best values are usually found not far below the surface has become quite popular because it's based on solid evidence. It's not to say that values can't be found at depths greater than a thousand feet from the surface. There are many mines—some quite large—that operate at much deeper levels; however, in those mines, there are valid reasons for not applying this general statement to their specific situations. For example, the major copper mines in the Keweenaw Peninsula are productive at depths of a mile or more below the surface; but we believe that the ore was originally deposited at or near the surface, then covered by layers of rock, and later tilted steeply due to earth movements that pushed some of the ore bodies down to the depths where they are found today.

The "reefs" or bankets of the Rand are so termed because these ore bodies were undoubtedly ancient coast beaches [117] or sea placers. The gravel, sand, and gold particles were cemented together into a conglomerate, then covered with many later sedimentaries, and finally the continent of Africa was so raised or altered in some manner as to bring these gold deposits into their present inland and tilted positions.

The "reefs" or bankets of the Rand are called that because these ore bodies were definitely ancient coastal beaches or sea placers. The gravel, sand, and gold particles were cemented together into a conglomerate, then covered with many later sediments, and finally, the continent of Africa was raised or changed in some way that brought these gold deposits to their current inland and tilted positions. [117]

In veins or lodes, it is not supposed that ore-making minerals could have been precipitated from solutions travelling either upward or downward and obeying chemical laws if the depth were sufficient to furnish great temperature or high rock and hydrostatic pressures. Therefore minerals which were deposited from aqueous solutions rising from depths, for example, must have retained their dissolved condition until they ascended to horizons in which both pressure and temperature were low enough to permit the precipitation and crystallization that create ores. Contrarily, descending solutions must have given off their contents before reaching the deep zones of heat and pressure, or not at all.

In veins or deposits, it’s unlikely that ore-forming minerals could have been deposited from solutions moving up or down while following chemical laws if the depth was great enough to produce high temperatures or intense rock and hydrostatic pressures. So, minerals that came from water solutions rising from below, for instance, must have stayed dissolved until they reached levels where both pressure and temperature were low enough to allow for the precipitation and crystallization that forms ores. On the other hand, solutions that were descending would have had to release their contents before reaching the deep areas of heat and pressure, or not at all.

It is a quite common phenomenon to [118] observe that the richest gold ore in a mine is found close to the surface, if not actually at "grass roots." The explanation is simple. The gold, being the most stable of the aggregate of minerals composing the original ore, has the better resisted the corrosive attacks of atmospheric agencies and has remained nearly intact, while its associated minerals have been dissolved or altered and carried away. The same amount of gold remaining with a diminished quantity of the worthless, non-metallic minerals—the "gangue"—inevitably renders the ore richer per unit of weight (such as a ton), although per unit of volume the value remains constant, or nearly so, so far as the gold is concerned.

It's quite common to [118] notice that the richest gold ore in a mine is found near the surface, if not actually at "grass roots." The reason is simple. Gold, being the most stable of the minerals in the original ore, has better resisted the damaging effects of the atmosphere and has mostly stayed intact, while its associated minerals have been dissolved or changed and washed away. The same amount of gold remains, but with less of the worthless, non-metallic minerals—the "gangue"—which inevitably makes the ore richer by weight (like a ton), although per volume, the value stays the same, or nearly so, as far as the gold is concerned.

But with other kinds of ore, as, for example, copper, the best grades are found, not close to the surface but some two hundred or more feet down. The explanation is that the minerals of copper are considerably more soluble than the ordinary gangues and therefore the weathering and oxidation that takes place in the upper horizons of ore bodies will dissolve [119] out the cupriferous compounds and thus deplete the superficial ore. But, by the flowing of the copper solutions to a lower zone, there occur certain reactions that reprecipitate the salts of copper upon compounds of the metal already formed and we have instances of the phenomenon known as "secondary enrichment."

But with other types of ore, like copper, the highest quality is found not near the surface but about two hundred feet or more underground. This is because copper minerals are much more soluble than ordinary waste rock, so the weathering and oxidation occurring in the upper layers of ore bodies will wash away the copper compounds, depleting the surface ore. However, when the copper solutions flow down to a lower zone, some reactions happen that cause the copper salts to reprecipitate onto already formed metal compounds, leading to what is known as "secondary enrichment."

Concentrator Division, Washoe Reduction Works of the Anaconda Copper Mining Co.

Concentrator Division, Washoe Reduction Works of the Anaconda Copper Mining Co.

Concentrator Division, Washoe Reduction Works of the Anaconda Copper Mining Co.,
Anaconda, Montana.
Largest Copper Works in the World.

Concentrator Division, Washoe Reduction Works of the Anaconda Copper Mining Co.,
Anaconda, Montana.
Largest Copper Works in the World.

It was this very process that effected the changes in the character of the ore in the famous Anaconda Mine, previously mentioned (page 44). The locator's discovery was upon an outcrop rich in silver. Probably the original compounds of the vein were of both silver and copper. The silver was more stable against dissolution than was the copper, with the result that the base metal was removed more rapidly and completely than was the precious metal. The upper portion of the vein was therefore left rich in silver, and low in copper. But, as depth of mining increased, there was found a gradual diminution of the silver content with a simultaneous increase in the copper. The mines of Butte have become known as [120] copper mines, and the wonderful records they have made are ample testimony to the fact that the change in the prevailing metallic values has not wrought serious havoc in the mining industry of the district.

It was this very process that caused the changes in the character of the ore in the famous Anaconda Mine mentioned earlier (page 44). The locator's discovery was on an outcrop rich in silver. The original compounds of the vein likely contained both silver and copper. The silver was more stable against dissolution than the copper, which meant that the base metal was removed more quickly and completely than the precious metal. As a result, the upper portion of the vein was rich in silver and low in copper. However, as mining went deeper, there was a gradual decrease in silver content along with a simultaneous increase in copper. The mines of Butte have become known as [120] copper mines, and the impressive records they have created are strong proof that the shift in the dominant metallic values hasn’t seriously harmed the mining industry in the area.

Regarding the probability of veins persisting to great depths, there is this thought suggested by J. E. Spurr: "Owing to the pressure exerted by gravity, it is doubtless more difficult for a fissure to stay open in depth than near the surface. The tendency is to press the sides together. At a certain depth, it is probably the case that the pressure and the plasticity resulting from this, together with the increase in heat, makes it impossible for fissures, fractures or any openings to exist."

Regarding the likelihood of veins continuing to exist at great depths, J. E. Spurr offers this insight: "Because of the pressure from gravity, it’s surely harder for a crack to remain open deep down than it is closer to the surface. The natural incline is for the sides to push together. At a certain depth, it’s likely that the pressure and the resulting plasticity, combined with the increase in temperature, make it impossible for cracks, fractures, or any openings to remain."

There are still many persons who are reluctant to let go of the cherished notion about the improvement of ores with depth. But there is no economy in deceiving one's self, and the wise thing to do is to accept the truths as they are daily proven. It may be worth while to again refer to the wonderful [121] Camp Bird Mine. This mine was discovered in its true worth years after it had been abandoned by early prospectors because it lacked showy, base-metal minerals. However, since its true merit has been recognized, it has maintained large and remarkably rich annual outputs. As values were beginning to show a material decrease, about five years ago, an experienced mining engineer of recognized standing was engaged to give advice concerning the future exploitation of the property. After exhaustive investigation of the ground, and in the face of adverse opinions, he recommended the discontinuance of further development in depth. At the same time, however, he advised the exploitation of the ground laterally or along the strike of the very persistent vein. His advice was followed and the company's stockholders had reason to be advocates of the new theory; for a very reasonable amount of horizontal development work opened up vast stores of rich gold ore.

There are still many people who are hesitant to let go of the cherished idea that ore quality improves with depth. But it doesn't make sense to fool oneself, and the smart move is to accept the truths as they are proven every day. It might be worth mentioning the amazing [121] Camp Bird Mine again. This mine was recognized for its true value years after being abandoned by early prospectors because it didn't have flashy, base-metal minerals. However, once its real worth was acknowledged, it consistently produced large and impressively rich annual outputs. About five years ago, as values were starting to show a significant decline, a respected mining engineer was brought in to advise on the future development of the property. After thorough investigation and despite contrary opinions, he recommended stopping further development at depth. At the same time, though, he suggested exploring the ground laterally, or along the strike of the very persistent vein. His advice was taken, and the company's stockholders had reason to support the new theory; a reasonable amount of horizontal development work revealed vast deposits of rich gold ore.

And yet, notwithstanding this disquieting feature that seems to apply to mining, [122] there is comfort to be found in the consideration of the exceptional cases. Every man may hope that when he locates a new mine he is taking possession of a property that will have as extensive ore bodies as those that have been proven to exist in the lead-silver mines of Laurium, Greece, the quicksilver mines of Spain, or the copper and tin mines of Cornwall. These mines are in lodes which have persisted and have been mineralized to comparatively great depths, so that their bottoms have not been reached.

And yet, despite this worrying aspect that seems to come with mining, [122] there is reassurance to be found when considering the exceptional cases. Every person can hope that when they discover a new mine, they are staking a claim to a property that will have ore bodies as large as those proven to exist in the lead-silver mines of Laurium, Greece, the quicksilver mines of Spain, or the copper and tin mines of Cornwall. These mines are in lodes that have lasted and have been mineralized to considerable depths, meaning their bottoms have yet to be reached.

There is a modern idea that has taken root in the minds of mining men of the last generation to the effect that the mines with rich ore are not necessarily the ones with big profits. There are many men looking for investments in mines whose contents are of low grade but in large bodies readily worked. If a mine with rich ore can be found and the ore abounds in such liberal amounts as to warrant the inauguration of a company with the essential working equipment, such a proposition will naturally not be turned down. However, the faith of some men is placed [123] in those mines that may be operated upon very large scales for long periods even if the profit per ton be very small. With a large plant, the unit of expense, i.e., the cost of mining per ton, is less than with a small mine. With the assurance of regular outputs of ore of a reasonably uniform grade, the milling equipment can be planned to handle a mine's product to the greatest advantage. The Alaska-Treadwell Mine, on Douglas Island, is an instance of a splendid property that has been continuously operated for about a third of a century. The ore is low grade in gold but immense dividends have been declared because the ore body, a tremendous mass of eruptive rock, has lain in such a position that the owners found it possible to excavate the stuff, to a great extent, by open-pit methods, although not by using steam shovels. The ore is treated in a vast mill contiguous to the mine.

There's a modern idea that has gained traction among mining professionals in the last generation: mines with rich ore aren't always the ones that yield the biggest profits. Many investors are looking into mines that offer low-grade but plentiful resources that are easy to work. If a mine with rich ore can be discovered, and if the ore is abundant enough to support the formation of a company with the necessary working equipment, that opportunity will typically be accepted. However, some people believe in mines that can be operated on a very large scale for extended periods, even if the profit per ton is minimal. With a large operation, the cost of mining per ton is lower compared to a smaller mine. By ensuring consistent outputs of ore with a reasonably uniform grade, the milling equipment can be designed to maximize the mine's product efficiency. The Alaska-Treadwell Mine on Douglas Island is an example of an exceptional property that has continuously operated for about thirty years. Although the gold ore is low grade, substantial dividends have been paid out because the ore body, a massive block of volcanic rock, is situated in a way that allowed the owners to extensively excavate it using open-pit methods, though not with steam shovels. The ore is processed in a large mill adjacent to the mine.

The Homestake, another gold mine, has an ore body quite dissimilar geologically from, but of dimensions approximating those of, the Treadwell. It is a great [124] body of mineralized, crushed shales, standing steeply in the shape of a lode and carrying about $3.75 per ton. It has been followed down considerably over one thousand feet and although the grade has dropped somewhat with depth, there are known to still be millions of tons in reserve. According to estimates, the mine has enough positive ore in reserve to keep the mill running at the rate of 4,000 tons per day for several years even if no more ore were to be opened up. This ore nets but 53 cents per ton above all mining and milling expenses; but a little arithmetic will show that this mine is worth twice as much as the mine that is producing, with more or less regularity, an average daily output of, say, forty tons of high grade ore upon which there is a net gain of $25 per ton, a figure that is rather high for the average of so-called "high grade" mines.

The Homestake, another gold mine, has an ore body that is quite different geologically from, but similar in size to, the Treadwell. It consists of a large body of mineralized, crushed shales, standing steeply in the shape of a lode and averaging about $3.75 per ton. It has been followed down significantly over one thousand feet and although the grade has decreased somewhat with depth, there are still millions of tons known to be in reserve. Estimates suggest that the mine has enough viable ore in reserve to keep the mill operating at a rate of 4,000 tons per day for several years, even if no new ore is discovered. This ore yields only 53 cents per ton after all mining and milling expenses; however, some calculation will show that this mine is worth twice as much as a mine producing about forty tons of high-grade ore daily, which has a net gain of $25 per ton—a figure that is quite high for the average of so-called "high-grade" mines.

We must, therefore, decide that it is always wise to think twice before condemning a mine because its grade of product is low. It is only recently and by virtue of marked improvements in [125] metallurgical processes that many bodies of mineral have become "ore." Hence it is but natural that many of the older miners fail to grasp the possibilities that lie in such deposits.

We should always think twice before judging a mine just because its product quality is low. Only recently, thanks to significant advancements in [125] metallurgical processes, have many mineral deposits been recognized as "ore." It's understandable that many older miners don't see the potential in these kinds of deposits.

What is the line of value separating a low grade from a high grade of precious metal ore? There is no uniform practice along this line. One will notice that ores are nowadays spoken of as high grade that, before the practice of mining these described meagre deposits, were reckoned as low grade. This fact is due to two reasons, viz., the cheapening of metallurgical operations, and the greater respect that is entertained for ores of low metallic content. The Esperanza Mine, in Mexico, is called a high-grade gold mine. Its ore has averaged about $33 per ton and the profit therefrom about $19. The Oroya-Brownhill Mine, in western Australia, has had ore that carried a value of about $22 per ton and from it a profit of about $15 per ton was made. In the Cripple Creek District, ores that run above $30 per ton are considered high grade. This means that [126] the average rich ore shipments of the district have a gold content of about 1-1/2 ounces per ton. The expenses of mining, freight, and treatment will probably total close to one-half the gross value, or about $15 per ton.

What is the value threshold that distinguishes low-grade precious metal ore from high-grade? There is no standard practice regarding this. Nowadays, ores are often referred to as high-grade that were once considered low-grade before mining operations developed these previously meager deposits. This shift is due to two reasons: the decreased costs of metallurgical processes and a greater appreciation for ores with lower metallic content. The Esperanza Mine in Mexico is labeled a high-grade gold mine, with its ore averaging around $33 per ton and generating a profit of about $19. The Oroya-Brownhill Mine in western Australia had ore valued at about $22 per ton, resulting in a profit of approximately $15 per ton. In the Cripple Creek District, ores that exceed $30 per ton are deemed high-grade. This indicates that the average high-grade ore shipments in the district contain about 1.5 ounces of gold per ton. The total expenses for mining, shipping, and processing are likely to be roughly half of the gross value, which is around $15 per ton.

When one speaks of $30 or $40 ore as rich or high grade, it is not to be inferred that there is no ore in the shipments which is not worth a great deal more than this amount per ton. Such lots of ore will, no doubt, contain a great many chunks that would assay many times the average value. Such selected materials would not, however, be samples; they would be what are called "specimens." The specimen has its place in mine economic discussions because it furnishes the basis of operations for the ubiquitous "high grader" with which nearly every new and rich mining camp must contend.

When people refer to $30 or $40 ore as rich or high grade, it doesn't mean that there isn't ore in the shipments that's worth a lot more than that per ton. Those shipments will likely include many pieces that are worth several times the average value. However, those specific pieces wouldn't be considered samples; they'd be called "specimens." Specimens are important in discussions about mining economics because they provide the basis for the ever-present "high grader" that nearly every new and wealthy mining camp has to deal with.

Some writers claim that the high grader is a product of modern conditions; but we find that he has existed for such a long time that he was given mention by the Scotch historian and scientist Andrew [127] Ure, who wrote of the precautions that were exercised in working the graphite mines of England, a century ago, to prevent the pilfering of even this comparatively low-grade material. Even the ignorant African natives of today cannot be trusted to wear clothing while working in the diamond mines. No, the cause of high grading is the innate greed of human beings and it has existed from prehistoric time and among all peoples.

Some writers argue that high grading is a result of modern times; however, we see that it has been around for so long that it was noted by the Scottish historian and scientist Andrew [127] Ure, who wrote about the measures taken a century ago to prevent theft of even low-grade graphite in England’s mines. Even the uneducated African workers today can’t be trusted to wear clothes while working in the diamond mines. The truth is, high grading stems from the natural greed of humans, which has existed since prehistoric times and across all cultures.

In this discussion as to grades of ore, the question may arise as to what might be reasonably considered the most attractive kind of a mining proposition. This is too knotty a query to be answered in a few words. There are so many different phases that must be given due weight. Every mine is a problem in itself. The Minnesota mines afford the best examples of profitable iron mining. Under the classification of underground, tabular deposits such as veins or lodes, no matter in what metals their values are found, Mr. T. A. Rickard believes that the ideal mine would be one carrying ore worth [128] $10 per ton, in a body five feet thick, with costs not exceeding $5 per ton, and so mined as to keep one million tons continually in reserve. According to these restrictions, he thinks the Robinson Mine, of Johannesburg, will about fill the bill as an ideal gold mine. It has a deposit of about the right thickness to avoid excessive timbering expense and this ore body is in such a vast, continuous sheet that its superintendent can depend upon maintaining a systematic development that will assure a constant supply of ore to the immense mill for ten or twelve years in advance. This same ore averages about fourteen pennyweights (approximately $14) per ton and upon this there is assured a profit of over five dollars per ton. [129]

In this discussion about ore grades, we might wonder what could be considered the most appealing type of mining venture. This is a complex question that can’t be answered easily. There are many different factors that need to be considered. Each mine presents its own unique challenges. The Minnesota mines are the best examples of successful iron mining. In the category of underground, tabular deposits like veins or lodes, regardless of what metals they contain, Mr. T. A. Rickard believes that the ideal mine would have ore valued at [128] $10 per ton, in a body that is five feet thick, with costs not exceeding $5 per ton, and mined in a way that keeps one million tons consistently in reserve. Based on these criteria, he thinks the Robinson Mine in Johannesburg could be considered an ideal gold mine. It has a deposit of the right thickness to minimize excessive timbering costs, and this ore body is so large and continuous that its superintendent can rely on maintaining a systematic development to ensure a steady supply of ore for the massive mill for ten to twelve years ahead. This same ore averages about fourteen pennyweights (approximately $14) per ton, which guarantees a profit of over five dollars per ton. [129]

XIII
VALUATION OF MINING
PROPERTY.

Whenever a piece of mining property is to change hands, it is the proper procedure to employ an expert engineer to investigate the ground and the improvements and so arrive at some estimate concerning its intrinsic value. Nobody is infallible and it is a trite saying that "nobody can see into a mine farther than the last drill hole." But there is a great difference in the reliabilities of reports made by trained and by untrained men. A self-styled "expert" of the type which is so abundant in every new mining centre and about cities frequented by mining investors will probably not be able to comprehend anything beyond his vision; but the mining geologist and engineer—the man who has devoted the better part of his life to study and experience along these lines—will be able to reach conclusions upon which much reliance may [130] be placed. This fact has come to be recognized by the men who exercise business judgment in their mining investments.

Whenever a piece of mining property is about to change hands, it’s standard practice to hire an expert engineer to assess the land and any improvements, leading to an estimate of its true value. No one is perfect, and it’s a common saying that "no one can see into a mine farther than the last drill hole." However, there's a significant difference in the reliability of reports from trained versus untrained individuals. A self-proclaimed "expert," common in every new mining area and in cities where mining investors gather, likely won’t understand much beyond their own limited perspective. In contrast, a mining geologist and engineer—the person who has spent most of their life studying and gaining experience in this field—will be able to draw conclusions that are much more trustworthy. This reality has been acknowledged by those who use sound judgment in their mining investments. [130]

The sampling of mines has been studied and improved upon by succeeding engineers, until one may say that it is conducted along strictly scientific lines. The old method of taking a sample of a mine by scratching ore from the sides of a shaft from top to bottom and letting the collected material at the bottom represent a fair average of the ore body, has been relegated to its proper place in the evolution of mine valuation.

The process of sampling mines has been analyzed and refined by later engineers, to the point where it can be considered a strictly scientific procedure. The outdated method of sampling a mine by scraping ore from the walls of a shaft from top to bottom and using the collected material at the bottom to represent an average of the ore body has been appropriately placed in the history of mine valuation.

Without entering into a description of the methods now employed by the best examiners of mines, let it be said that every scientific precaution is taken to obtain representative portions of the ore bodies, at such intervals as seem best in each particular case; that measurements and assays are made for each and every sample taken and not for the aggregate of all the samples; that no opportunity is allowed unscrupulous persons to vitiate results in any manner; that a professional [131] engineer will not hold nor acquire, in any way, an interest in any proposition which he examines; and that the report of a reputable engineer is equally acceptable to the seller and to the purchaser, no matter for whom the work is done.

Without going into detail about the methods currently used by the top mine examiners, it should be noted that all scientific precautions are taken to obtain representative samples of the ore bodies at intervals deemed appropriate for each specific case; that measurements and assays are conducted for each individual sample taken, not for the total of all samples combined; that no chance is given for dishonest individuals to compromise results in any way; that a professional [131] engineer will neither hold nor acquire any interest in any proposal they assess; and that the report from a reputable engineer is equally acceptable to both the seller and the buyer, regardless of who commissioned the work.

Much discussion has prevailed as to the best means of estimating the amount and the value of ore in unbroken reserves. Associated with these beneficial disputes, there has been a further controversy as to the correct classification for reserves of unbroken ore. It is now conceded among mining men and engineers to be improper to longer make use of the meaningless but tongue-worn expression "ore in sight" as signifying any known or unknown volumes of ore in the ground. The only ore in sight is that which has been hoisted or which has been broken and stored underground. Well-known engineers have proposed the following expressions:

Much discussion has taken place about the best ways to estimate the amount and value of ore in unmined reserves. Along with these helpful debates, there has been another argument about the proper classification of unmined ore reserves. Mining professionals and engineers now agree that it is no longer appropriate to use the vague and overused term "ore in sight" to refer to any known or unknown quantities of ore in the ground. The only ore that counts as "in sight" is that which has been mined or broken and stored underground. Renowned engineers have suggested the following terms:

To denote the contents of ore bodies which have been exposed on four sides, we may say ore blocked out, positive ore or ore developed; for bodies exposed upon [132] three sides, it is considered correct to describe the contents as ore partly blocked; for such bodies as are proved upon two sides only, the terms ore faces, ore developing or probable ore are appropriate; while in speaking of all ore that may be expected or suspected, but which is beyond the last exposures, we may use the expressions ore expectant and possible ore.

To describe the contents of ore bodies that are exposed on all four sides, we can say ore blocked out, positive ore, or ore developed; for bodies exposed on [132] three sides, it’s proper to refer to the contents as ore partly blocked; for those that are confirmed on just two sides, the terms ore faces, ore developing, or probable ore are suitable; and when discussing all ore that might be anticipated or suspected, but is located beyond the last exposures, we can use the terms ore expectant and possible ore.

When it comes to the question of placing a value upon an undeveloped property—one in which there is little, or no, development work or exploitation—it takes more than the ability of the common "expert" of the curbstone variety to arrive at any dependable figures. Without any exposures, except those that may have been produced by Nature, and perhaps with no guidance from facts that might be obtainable were there adjoining mines, one might suppose that the whole matter would resolve itself into mysticism. Right here is where the trained man best shows his ability.

When it comes to determining the value of an undeveloped property—one that has little or no construction or use—it requires more than just the expertise of an average "expert" on the street to come up with reliable numbers. Without any visible features, other than those created by Nature, and likely lacking any data from neighboring mines, one might think the whole issue would be a mystery. This is exactly where the trained professional demonstrates their true skills.

The greatest error of the usual investor in mining schemes is to rely upon either no report at all or upon a worthless one [133] furnished by an impostor. In no sort of a mining proposition is a reliable report so essential as when one is contemplating the purchase of a "prospect." Successful engineers, whose predictions concerning such properties have come true, are sometimes complimented (?) by being accused of possessing intuition or prophetic vision. Call this ability what we will, we must admit that education and training give certain qualifications that will enable a man to arrive at conclusions which, in the majority of cases, will be found to wear. [134]

The biggest mistake most investors make in mining projects is either relying on no report at all or on a worthless one provided by a fraud. In any mining opportunity, having a reliable report is crucial when considering the purchase of a "prospect." Successful engineers, whose predictions about these properties have proven accurate, are sometimes jokingly accused of having intuition or prophetic insight. Regardless of what we call this skill, we have to acknowledge that education and training provide certain qualifications that help a person draw conclusions that, in most cases, will hold true. [134]

XIV
THE MINE PROMOTER.

With the thought that has justly been given to the place occupied (or that should be occupied) in the world's financial and economic affairs by legitimate mining, there has developed a well-founded stigma upon the operations of a class of persons who have styled themselves by what was formerly considered a worthy title, that of "promoters." Since men have found that it is as possible to go into a mining deal with the same chances for success as attach to any other line of investment; since it has been proved that real, worthy mining property does not require the exertions of many middlemen to obtain capital for its development; and since it has usually turned out that these "promoters" have handed the hot end of deals to their investors, it is not to be wondered that some sort of a brand would attach itself to the men who are not in the business to benefit the industry of [135] mining in the least, but really for the selfish gains which they can pocket at the expense of the industry.

With the attention that has rightfully been given to the role of legitimate mining in the world's financial and economic affairs, a strong stigma has developed around the actions of a group of people who have referred to themselves by what was once a respectable title, “promoters.” Since it has become clear that entering a mining deal carries the same chances for success as any other kind of investment; since it has been shown that genuine, valuable mining properties don’t need a lot of middlemen to secure funding for development; and since it generally turns out that these “promoters” have left their investors holding the short end of the stick, it’s no surprise that some sort of negative label would stick to those who are not in the business to genuinely benefit the mining industry, but rather for their own selfish profits at the industry's expense.

These men are legion. The mails are laden with their seductive letters and "literature." Brokerage firms are numbered among these leeches on legitimate mining. Charlatans appear almost daily upon mining scenes. The men who engage in these deplorable practices are not from any one walk in life: they spring up from various branches of our social structure. The general public has learned that a very prominent Boston magnate will not scruple to promote a mining property even though it lacks the merit essential in attracting the conservative capitalist. Thousands of people of small means throughout the United States and Canada have been recipients of nicely worded and familiarly-addressed letters signed by the son of a famous American author. This son, himself a writer of some repute, presumed to speak to his "friends" concerning a mining property which he promoted and into which he was glad to allow them to get with him [136] "on the ground floor." He frankly stated that he was not offering such privileges to the big capitalists. He inwardly knew that such men do not require holdings in the Cobalt or any other region. Through the splendid work carried on by the Government postal authorities many of these frauds have been exposed and the perpetrators brought to justice. In January, 1912, the above-mentioned author, together with a number of his ilk, were brought before the Federal Grand Jury, and found guilty.

These men are everywhere. The mail is filled with their tempting letters and "literature." Brokerage firms are among these parasites on legitimate mining. Scammers seem to pop up almost daily in mining areas. The people who engage in these shameful practices come from all walks of life; they emerge from different parts of our social structure. The general public has learned that a well-known Boston businessman won't hesitate to promote a mining property, even if it lacks the qualifications needed to attract cautious investors. Thousands of people with limited means across the United States and Canada have received nicely written and familiar letters signed by the son of a famous American author. This son, a writer himself with some recognition, felt entitled to talk to his "friends" about a mining property he was promoting and into which he was happy to let them join him "on the ground floor." He openly admitted that he wasn’t offering such opportunities to the wealthy investors. Deep down, he knew that those individuals didn’t need stakes in Cobalt or any other area. Thanks to the excellent work done by government postal authorities, many of these scams have been uncovered and the criminals brought to justice. In January 1912, the aforementioned author, along with several others like him, were brought before the Federal Grand Jury and found guilty. [136]

It is not the men of great capital who are induced, as a rule, into the deals of the "promoter." It is usually the common people, the persons of small means who have saved up a little spare money from which they hope to realize competencies for rainy days—a class of beings inexperienced in investments—who become the dupes of the promoter.

It’s not usually the wealthy individuals who get involved in the schemes of the "promoter." It’s typically regular people, those with limited financial resources who have saved up a bit of extra cash, hoping to make something of it for tough times—a group of individuals who are not experienced in investing—who end up being taken advantage of by the promoter.

There have been notable exceptions to the statement that capitalists do not yield to the seductions of these men, but recurrences are liable to be few. The great business man is fortified by experience against [137] forms of treachery and he is, therefore, not so susceptible to the allurements of any "promotion," be it mining or otherwise.

There have been notable exceptions to the idea that capitalists do not give in to the temptations of these individuals, but such instances are likely to be rare. The successful businessman is strengthened by experience against forms of betrayal and is, therefore, less susceptible to the attractions of any "promotion," whether it's in mining or something else.

If one investigates these advertised mining "promotions," he will often find that the money paid in by the small investors purchases a very small portion only of the capitalization. The men who conceived the scheme of "promoting" a concern have carefully arranged to hold a majority of the stock, so that should there, by any chance, prove to be a mine, they are the ones who will reap the greatest benefits. Further, it often transpires that the contributions of cash that purchase the small interests do not perform the function of development for which the stock was ostensibly put upon the market. Perhaps somebody has a desire to get rich quickly. The operations of such frauds are so obscured and so complex to the average individual that sufficient evidence can seldom be procured to prove any violation of law.

If you look into these advertised mining "opportunities," you'll often find that the money put in by small investors buys only a tiny fraction of the total investment. The people who came up with the idea of "promoting" the business have carefully arranged to hold most of the stock, so if there happens to be a mine, they'll be the ones to benefit the most. Additionally, it often turns out that the cash contributions that buy those small shares don’t actually fund the development that the stock was supposedly meant to support. Maybe someone wants to get rich quickly. The way these scams operate is so hidden and complicated to the average person that it's rare to gather enough evidence to prove any legal wrongdoing.

A witty newspaper paragrapher once remarked that out in Nevada the old adage "Death loves a shining mark" [138] was changed to "Death loves a mining shark." It would seem, however, that if Death were to love the person bearing the odious, well-understood title of "shark" enough to claim him early, the business of mining would be materially benefited. The post-office officials of the United States are to be commended for their efforts at curbing the despicable operations of these fakirs. Occasionally the papers come out with the news that a firm's offices have been raided and their business stopped. These news items fall as awakeners upon the hundreds of gullible, middle-class persons all over the country who are known to actually force their cash remittances upon these fraudulent operators, much upon the plan of a department store's supposed bargain sale.

A clever newspaper writer once said that in Nevada, the old saying "Death loves a shining mark" was changed to "Death loves a mining shark." However, it seems that if Death were to take the person with the notorious title of "shark" early, the mining business would benefit significantly. The post-office officials in the United States deserve praise for their efforts to stop these despicable scams. Occasionally, news articles report that a company’s offices have been raided and their operations shut down. These reports serve as a wake-up call to the hundreds of gullible middle-class individuals across the country who actually send their money to these fraudulent operators, similar to how people flock to a department store’s supposed bargain sale.

In spite of the "bad name" that has been attached to the persons engaged in starting up enterprises, there is a real need for more activity in the matter of inaugurating real, legitimate mining enterprises. Persons who devote their brains and energies in the direction of furthering worthy mining propositions do really [139] "promote" the interests of such companies. What shall such persons be called if not "promoters"? There does not seem to be any other word that expresses the occupation of such persons. The real solution of this dilemma in which the honest men engaged in such work find themselves placed is to denounce, forcefully, the charlatan as being not a real promoter but a gross misrepresentation of one.

Despite the "bad reputation" associated with people involved in launching businesses, there's a genuine need for more efforts in establishing real, legitimate mining ventures. Individuals who dedicate their skills and energy to advancing worthy mining projects truly do "promote" the interests of these companies. What should we call these individuals if not "promoters"? There doesn't seem to be another term that accurately describes their role. The best way for honest people in this field to address the dilemma they face is to firmly denounce the frauds as not being real promoters, but rather a blatant misrepresentation of one.

Let us, therefore, remove the odium from this title and give our approbation to those persons who are earnestly endeavoring, by honest means, to place mining enterprises upon strictly business-like footings. The mining industry needs promotion and promoters. [140]

Let's take away the negative connotation from this title and support those individuals who are genuinely trying, through honest methods, to set mining operations on a solid business foundation. The mining industry requires promotion and those who promote it. [140]

XV
INCORPORATION AND
CAPITALIZATION.

Let us consider the legitimate financing of a new or a reorganized, worthy, mining proposition. It is the universal custom to own and work a mine under the laws that govern a corporation and, for this reason, the mining man of the day is familiar with the practices of incorporating.

Let’s think about the proper funding of a new or reorganized, viable mining project. It’s common practice to own and operate a mine according to corporate laws, and for this reason, today’s mining professionals are well-versed in the process of incorporating.

It is something of a question at the start to decide what is a fair price to fix upon a property as a whole—that is, to decide what the capitalization should be. There is no rule to be followed in this matter. Some organizers will decide to capitalize at what is expected will be the value of the property after some time. Other men will stick to the idea that it is the proper thing to capitalize for what the property will invoice at the time. The higher the capital stock, the greater number of shares there are for sale, usually. With a conservative capitalization, [141] there may be fewer shares for sale, but each share is worth correspondingly more and the chances are much better for an advance in the price per share whenever the mine becomes productive. There are investors who will carefully investigate this feature and will shun any mining stock which has any appearance of over-capitalization. It would be well if all investors were to follow this precaution.

At the beginning, it’s a bit of a challenge to figure out a fair price for a property overall—that is, to decide what the capitalization should be. There’s no set rule for this. Some organizers will choose to capitalize based on what they expect the property’s value will be after some time. Others will stick to the belief that it’s best to capitalize based on what the property will be valued at the time. Generally, a higher capital stock means more shares available for sale. With a conservative capitalization, [141] there may be fewer shares up for grabs, but each share is worth more, and the chances for an increase in the price per share are much better once the mine starts producing. There are investors who will thoroughly look into this aspect and avoid any mining stock that seems over-capitalized. It would be wise if all investors took this precaution.

But what about the price at which to capitalize a prospect? By a prospect we here mean a property that has been favorably reported upon as worthy of development but in which, up to date, there is little, if any, showing of values or reserves. The engineer's report has recommended the property as containing the possibilities of a mine. How much is it worth? Can he or can anybody even roughly estimate the sum? An engineer frequently does fix the sale-purchase price of a property, but it is not so usual for him to decide upon a valuation for capitalization. A very good guess may be made, perhaps, if there are similar and neighboring properties which have been developed. [142]

But what about the price for capitalizing a prospect? By a prospect, we mean a property that has been positively reviewed as being suitable for development, but so far, there’s little to no indication of values or reserves. The engineer's report has suggested that the property has the potential to become a mine. What’s it worth? Can he or anyone else even roughly estimate the amount? An engineer often determines the sale price of a property, but it's not common for him to set a valuation for capitalization. A good estimate might be possible if there are similar nearby properties that have been developed. [142]

Assuming a prospect that has been reliably reported to the owners as possessing the earmarks of a mine and as warranting expenditures for exploitation, upon what basis should a company be capitalized? If the owners of the property have capital, the chances are that they will not care to share their holdings with other parties. But very frequently worthy "prospects" are held by men of no means, and in order to develop their mines the owners feel the necessity of coöperation with parties who can furnish working funds. In every such instance, there will arise this debate as to the proper basis of capitalization.

Assuming a prospect that has been reliably reported to the owners as having the characteristics of a mine and as being worth spending money on for development, how should a company be capitalized? If the property owners have funds, they are likely not interested in sharing their stake with others. However, it often happens that promising "prospects" are owned by individuals without financial resources, and to develop their mines, these owners feel the need to collaborate with parties who can provide working capital. In every such case, there will be a discussion about the appropriate basis for capitalization.

There is no human means of arriving at a close valuation of any prospect, so it becomes a matter of pure judgment as to future probabilities and the possibility of placing the stock at the most advantageous price. A company will, therefore, be stocked for some round number of shares, say 100,000, upon which some empirical par valuation, say $1, is placed per share. This is not to be understood as stating nor assuming that the property [143] has a present valuation equalling the par of the entire capitalization. Who would assert that any mere prospect ever had such a value as $100,000? No, it is not the intention of the organizers to claim that the ground is worth the par valuation; but some start must be made and so, in the absence of something precise, round numbers are made to do service.

There’s no way to accurately assess any potential, so it really comes down to personal judgment regarding future possibilities and figuring out how to price the stock favorably. A company will typically be allocated a set number of shares, let’s say 100,000, with a basic value assigned, like $1, per share. This shouldn’t be taken to mean that the property [143] is actually worth the total of the entire capitalization. Who would ever claim that any potential has a value of $100,000? No, the organizers aren’t trying to suggest that the land is worth that basic valuation; it’s just a starting point and, in the absence of anything more accurate, rounded figures are used.

Stock is then offered at figures much below the par valuation and in such quantities as will maintain sufficient capital in the treasury of the new concern to get the property's exploitation under way and to so sustain it as to make the prospect grow into a mine.

Stock is then offered at prices much lower than the face value and in quantities that will keep enough capital in the treasury of the new company to kickstart the property's development and support it until it can become a profitable mine.

If shares are offered at 10 cents, it does not mean that a prospect is worth even that valuation. It does mean (we are considering now only the operations of honest concerns) that the men who are managing affairs believe that the sale of so many shares at ten cents each will furnish adequate means for the development and equipment of the mine. Therefore, there is a prospective valuation placed upon all such enterprises. [144]

If shares are offered at 10 cents, it doesn't mean that the prospect is valued at even that amount. What it does indicate (assuming we're only looking at reputable companies) is that the people running the business believe that selling a certain number of shares at ten cents each will provide enough funding for developing and equipping the mine. Thus, there is a prospective valuation assigned to all such ventures. [144]

Is an investment in such a company to be considered as gambling? If there have been sound assurances from reliable examiners concerning the likelihood of the ground carrying the essentials of a mine and the only uncertain element is the ultimate magnitude of the mine, then we might say that the investment is not a gamble at all, since there is no chance to lose. The purchase of such stock is a very sane investment and there is no telling what the returns may reach.

Is investing in such a company considered gambling? If there are solid guarantees from trustworthy experts about the chances of the land having the key characteristics of a mine, and the only unknown factor is the size of the mine, then we could say that the investment isn't a gamble at all, since there's no risk of loss. Buying such stock is a really smart investment, and who knows what the returns could be.

When incorporating a new company, it has become the fashion for the owners of the ground to exchange their titles for certain specified fractional interests in the company. This is effected usually by going through the formality of having the owners sell their holdings outright for the entire issue of the capital stock. Then, according to prearranged agreements, these owners donate to the treasury of the company a portion of this capital stock to be henceforth termed "treasury stock." The first step makes the capital stock "fully paid for," since it has been accepted in full payment for [145] the property. The second step supplies the company with the necessary means for raising funds to develop.

When creating a new company, it's become common for landowners to trade their titles for specific fractional shares in the company. This process usually involves the owners selling their holdings outright for the complete capital stock issue. Then, based on prior agreements, these owners contribute part of this capital stock to the company, which is now called "treasury stock." The first step ensures the capital stock is "fully paid for," since it has been accepted as full payment for [145] the property. The second step provides the company with the necessary funds for development.

There can be no reasonable objection to this practice. But there is much criticism of the usual apportionment of the owners' and the treasury stock. It is agreed that the incorporators are, as a rule, greedy in this respect, since they generally issue more than 50 per cent. (and frequently 60 per cent.) of the capital stock to themselves and expect to float the project to success upon the money derivable from the sale of the balance or treasury stock.

There’s no good reason to object to this practice. However, there’s a lot of criticism regarding how the owners’ shares and treasury stock are divided. It’s commonly understood that the founders tend to be greedy in this area, as they usually issue more than 50% (often 60%) of the capital stock to themselves and hope to fund the project’s success through the money made from selling the remaining shares or treasury stock.

Is a mere prospect, even under the best natural conditions, plus the effort incidental to the organization of a mining company, worth one-half or more of a producing mine? During an extended experience in the business of converting discoveries into patented claims and prospects into mines, the writer has found that there is never an owner who is willing to sell a developed mine for twice the price he had set upon the original prospect. The valuation of his holdings goes up by [146] greater multiples than mere doubling or even trebling and it is a rare thing to find a man willing to sell out a proved mine at less than ten times the prevailing valuation that would have been placed upon the same piece of property before its development.

Is a simple prospect, even in the best natural conditions, plus the effort involved in setting up a mining company, worth half or more of a producing mine? Throughout extensive experience in turning discoveries into patented claims and prospects into mines, the writer has found that there is never an owner who is willing to sell a developed mine for twice the price he set for the original prospect. The value of his holdings increases by a[146] much greater multiple than just doubling or even tripling, and it’s rare to find someone willing to sell a proven mine for less than ten times the market valuation that would have been placed on the same property before it was developed.

Hence, there is no propriety in the act of self-appropriating half the capital stock by the organizers. Investors should be wary about taking interests in companies which have been so organized. If an owner believes that a mine is worth ten times as much as a prospect, let him be consistent and offer his undeveloped property for a tithe of the capital stock in the anticipated mine. If he has a worthy piece of ground, he will reap the same benefits as the holders of the stock who place their cash against his title to a tract of virgin territory. If he will not thus act fairly, it indicates either a questionable piece of property or an avidity undesirable in a partner. It is accordingly advisable to shun offerings in such concerns.

Therefore, there's no appropriateness in the organizers taking half of the capital stock for themselves. Investors should be cautious about investing in companies that are set up this way. If an owner believes that a mine is worth ten times more than an undeveloped site, they should be consistent and offer their land for a fraction of the capital stock in the expected mine. If it's a valuable piece of land, they will gain the same benefits as the stockholders who invest their money in exchange for their deed to a plot of untouched land. If they refuse to act fairly, it could mean the property is questionable or they are overly greedy, which is not ideal in a partner. Therefore, it's wise to avoid investments in such ventures.

Another matter to be considered here is that of overloading a fairly good mining [147] enterprise with so much capital investment that the property cannot be made to pay proper dividends and fair interest on the capital. Many worthy, though perhaps small, mining concerns have made failures through a disregard for this economic feature. The proper adjustment of this matter is a serious thing and it should not be passed over lightly. Investors should look into this phase of mining thoroughly. [148]

Another issue to consider here is overloading a decent mining enterprise with so much capital investment that it can't generate enough profit to pay proper dividends and fair interest on the capital. Many respectable, although perhaps small, mining operations have failed because they overlooked this economic aspect. Properly addressing this issue is crucial and shouldn't be taken lightly. Investors need to thoroughly examine this aspect of mining.

XVI
MINING INVESTMENTS.

One should be able to establish, in his mind, a distinction between the value of investments in operating mines and in prospective mines; and he should likewise be competent to fix some difference in his attitude when purchasing the stocks in these dissimilar projects. One should invest in an established mine with the same business precautions that would guide him in buying an interest in a mercantile establishment.

One should be able to clearly differentiate between the value of investing in operating mines versus prospective mines and should also be able to adjust their approach when buying stocks in these different projects. Investing in an established mine should be approached with the same business caution that one would use when purchasing a stake in a business.

It is possible to obtain, through competent engineers, the approximate present valuation and the probable life of any mine and thus to arrive at conservative figures that will govern one's investments. But, when debating the purchase of stock in a prospect, a man should learn all the available facts concerning the geology and the organizers and should then decide, in his own way, whether he cares to make the purchase. Even the prospects offering the finest inducements have been known to disappoint, just as some less promising prospects have occasionally exceeded expectations.

It’s possible to get an approximate current valuation and the likely lifespan of any mine through skilled engineers, allowing you to come up with cautious figures that will guide your investments. However, before buying stock in a prospect, a person should gather all the available information about the geology and the people behind it, and then make their own decision about whether to invest. Even the most promising prospects have been known to let people down, just as some that seem less promising have sometimes exceeded expectations.

Mill of the Roodepoort-United Mines, Transvaal, South Africa.

Mill of the Roodepoort-United Mines, Transvaal, South Africa.

Mill of the Roodepoort-United Mines, Transvaal, South Africa.

Mill of the Roodepoort-United Mines, Transvaal, South Africa.

So, while there are certain safeguards to investments, there should also be accepted the uncertainties which must accompany the placing of faith in unseen things.

So, while there are some protections for investments, there should also be an acceptance of the uncertainties that come with putting trust in things we can’t see.

The same general rules for business success will attend both commercial and mining enterprises. Any incorporation must be handled according to recognized, successful methods, no matter what its scope or activity. In most lines of business, there is a likelihood of growth with longevity, there being no reason to limit the life of the usual mercantile business. With advancing years, a manufacturing company, for instance, with good management, will establish a reputation and will gradually increase its business and its stock in trade. But with a mine, the business is one which is most successful only when actually depleting the assets at the most rapid rate. With some kinds of mines such as coal, placer, iron or the "reef" gold mines of the Rand, the life can [150] be very accurately forecast and all activities may be planned for specified periods.

The same basic rules for business success apply to both commercial and mining ventures. Any company formation must be managed according to established, effective methods, regardless of its size or industry. In most business areas, there's a good chance for growth over time, with no reason to restrict the lifespan of a typical retail operation. As time goes on, a manufacturing business, for example, with effective management, will build a strong reputation and will gradually expand its operations and inventory. However, in the mining business, success often comes from extracting resources at the fastest possible rate. For certain types of mines, like coal, placer, iron, or the "reef" gold mines in the Rand, the lifespan can be predicted quite accurately, and all activities can be scheduled for specific time frames. [150]

In some kinds of mining ground—as for instance, the irregular masses of Leadville or the crooked and uncertain veins of Tonopah—there can be no predictions that will reliably or even approximately decide the probable life of the mining activities of any company. The duration of mines of this second class is wholly problematical. A few years ago, there was much discussion of this subject and one writer, who had collected statistics over an extended period and covering various kinds of mines, arrived at the conclusion that the average life of a mine is about eleven years. J. P. Wallace, in his work, Ore Deposits for the Practical Miner, in discussing this point says, "The average mine, if continuously worked, seldom lasts longer than three to five years. A mine is valuable not for what it has produced, but for what it is capable of producing." This opinion cannot be borne out by facts, for the brevity he ascribes to the average mine is altogether unreasonable and his statement is pessimistic. [151] The cases of mines which have petered out in three or five years are exceptionally few. It must be that the experiences of this author have been in "pockety" districts, for he could not have lived in any of the worthy mining camps of the world very long and have come away with any such notion.

In certain types of mining areas—like the uneven deposits in Leadville or the winding and unpredictable veins in Tonopah—it's impossible to predict the lifespan of any company's mining operations with any degree of accuracy. The lifespan of mines in this category is entirely uncertain. A few years back, there was a lot of discussion on this topic. One writer, who gathered statistics over a long period and across different types of mines, concluded that the average lifespan of a mine is about eleven years. J. P. Wallace, in his book, Ore Deposits for the Practical Miner, mentions, "The average mine, if worked continuously, rarely lasts more than three to five years. A mine is valuable not for what it has produced, but for what it can produce." This view isn’t supported by the facts, as the short lifespan he claims for the average mine is totally unreasonable and his statement is overly pessimistic. [151] There are very few instances of mines that have closed down in three to five years. It seems the author’s experiences have been in "pockety" areas because he couldn't have spent much time in any of the reputable mining camps in the world and come away with such a belief.

To take care of this intrinsic feature of mining, and to place propositions fairly before the public, there should be attention given to the matter of recovering the invested capital before the expiration of activities through the exhaustion of mining assets, the ore bodies. This practice, known as "amortization," is being given more and more consideration as people come to realize this peculiarity of mining. Some companies are now so organized and managed that there is a guaranteed refund, at stated periods, or whenever profits have accrued, of fractions of the invested capital with accumulated interest thereon. These funds are calculated to continue over the number of years which it is presumed the mines will live so that upon the cessation [152] of mining, the owners of the stocks will have been completely reimbursed with their original outlay in addition to the dividends that have resulted from the success of the enterprise. It is here that the problem of the life of a mine enters into economics, and it is important that it be given its due share of study. Amortization is not of American origin and it has not been adopted in this country to the extent which it is bound to be in the future.

To address this essential characteristic of mining and to present proposals fairly to the public, it’s important to focus on recovering the invested capital before mining activities end due to the depletion of resources, the ore bodies. This practice, called "amortization," is gaining more attention as people understand this unique aspect of mining. Some companies are now structured and managed in a way that guarantees paybacks, at specified intervals or whenever profits are made, of portions of the invested capital along with accumulated interest. These funds are calculated to last for the number of years that the mines are expected to operate so that when mining stops, stockholders will have been fully reimbursed for their original investment plus dividends earned from the venture's success. This is where the issue of a mine's lifespan comes into the economic equation,

One means of providing against an extinction of a mining company's activity with the exhaustion of the ore bodies in the mines is to provide new mining territory to which operations may be transferred at the proper time. This plan has been very successfully carried out by a number of large mining companies. When a mining company has been maintaining its identity for a considerable period, it has reached a very desirable stage of economy in the make-up of its various lists of officials, superintendents and engineers. All this efficiency can be very readily transferred to the operation of [153] virgin mining property. Often much of the equipment of a mine can be moved and used again. When a mine is known to be nearing its finish, there is a hesitancy on the part of the owners in replenishing the equipment and sometimes the mining is kept up through the use of worn-out, inefficient apparatus when, were the owners expecting to continue mining, they would purchase and install the new equipment when it is needed.

One way to prevent a mining company from shutting down when its ore resources run out is to secure new mining land where operations can shift at the right time. Many large mining companies have successfully implemented this strategy. When a mining company has maintained its identity for a significant amount of time, it has achieved a highly efficient structure in its various lists of officials, superintendents, and engineers. This efficiency can be easily transferred to the operation of [153] untouched mining properties. Often, much of the mine's equipment can be relocated and reused. When a mine is known to be nearing its end, the owners tend to hesitate in replacing the equipment, and sometimes mining continues with outdated, inefficient tools. If the owners were expecting to keep mining, they would buy and install new equipment when necessary.

One company in the San Juan region of Colorado prepared for the contingency by purchasing neighboring property to which it moved its operations. Another large company bought a large piece of mining property in Mexico, although its initial operations were in Colorado. Placer mining companies frequently dismantle, move and re-erect dredges. [154]

One company in the San Juan region of Colorado got ready for the potential issue by buying nearby land where it relocated its operations. Another big company purchased a significant piece of mining land in Mexico, even though it originally operated in Colorado. Placer mining companies often take apart, move, and rebuild their dredges. [154]

XVII
MINE EQUIPMENTS.

There is a constant tendency toward the adoption of machinery for the performance of every mining act which, formerly, was done by manual or animal labor. There are good reasons for this tendency. Good, trained labor is scarce; wages are slowly but gradually rising; ores of lower grade must be mined, and the tonnages must be correspondingly greater. The increased economy in production can be brought about by the adoption of devices that will supplant, and even excel, muscular effort.

There is a consistent push to use machines for every mining task that used to be done by hand or with animal labor. There are solid reasons for this shift. Skilled workers are hard to find; wages are slowly but steadily increasing; lower grade ores need to be mined, and the amounts mined have to be larger. Greater efficiency in production can be achieved by using machines that can replace, and even outperform, manual labor.

A machine can now be installed and can be operated by a single man to perform the work formerly done by many men. There have been machines invented to entirely, or partially, perform every operation in and around mines, and one might imagine an ideal mine in which all such machines were installed. But even there, [155] we should have to grant the presence of some few men, for it would not be possible to keep all the machines working without human, intelligent control. In such a mine, it might be possible to maintain a large production with very few laborers or overseers. Fewer men means less wages, less labor trouble, fewer fatalities, and less time occupied in handling men into and out of the workings.

A machine can now be set up and operated by just one person to do the work that used to require many people. Machines have been invented to fully or partially handle every task in and around mines, and one could picture an ideal mine where all these machines are installed. But even there, [155] we would still need a few workers, as it wouldn’t be possible to keep all the machines running without human, intelligent oversight. In such a mine, it might be feasible to maintain high production with very few workers or supervisors. Fewer workers mean lower wages, fewer labor disputes, fewer accidents, and less time spent managing workers in and out of the operations.

In some ways, copper mines are ahead of gold mines in their equipment. Coal mines have adopted car loaders which as yet and without any very good reasons metal mines have not.

In some ways, copper mines have better equipment than gold mines. Coal mines have started using car loaders, which metal mines have not adopted yet, and there isn't any very good reason for it.

Plants for mines must utilize the same sources of power as are used by any other plants. Steam and water have been the usual forms, but electricity is gaining in favor in places where it can be cheaply obtained. At a coal mine, we naturally expect to see all the power generated through the combustion of coal under boilers. At metal mines—which are frequently remote from sources of coal supply—we run across the use of expensive [156] coal for all power purposes. When it is possible to obtain a sufficient supply and head, water is adopted to furnish the required power for operation. At mines, with water sufficient to produce a part only of the needed power, we may see both steam and water power utilized. In the cases of some mines which are distant from sources of both coal and water supply, power is generated at points where stores of natural energy are available for use and the power is transmitted (usually as electricity, sometimes as compressed air) over long distances to the mines.

Plants for mines must use the same power sources as any other plants. Steam and water have been the usual options, but electricity is becoming more popular in places where it can be obtained cheaply. At a coal mine, we naturally expect to see all the power generated through burning coal in boilers. At metal mines—which are often far from coal sources—we encounter the use of expensive coal for all power needs. When it’s possible to get enough water supply and pressure, it’s used to provide the necessary power for operation. In mines where water can only produce part of the needed power, we might see both steam and water power being used. In some mines that are far from both coal and water sources, power is generated at locations where natural energy is available, and the power is transmitted (usually as electricity, sometimes as compressed air) over long distances to the mines.

Some mines cannot be economically operated without the treatment of the ores upon, or close to, the mining property. With certain sorts of low-grade ore, or with those kinds of ores that may be concentrated before shipment, provision should be early made for the erection of appropriately designed mills. We say the subject should be considered early, but we do not advocate the premature erection of any mill. The hills of the [157] Western mining states are dotted with monuments to men's error in this particular. Here and there (not in our own country alone, but throughout the mining world) one may run across an abandoned mine plant, a complete mill, a smeltery, a railroad or an aerial tramway, all prematurely provided for outputs which failed to materialize.

Some mines can't be run profitably without processing the ores on or near the mining site. For certain types of low-grade ore or those that can be concentrated before shipping, plans should be made early to build properly designed mills. We emphasize that this topic should be considered early on, but we do not support the hasty construction of any mill. The mountains of the [157] Western mining states are filled with reminders of mistakes made in this regard. Here and there—both in our own country and across the global mining industry—you can find abandoned mining facilities, complete mills, smelters, railroads, or aerial tramways, all set up too soon for outputs that never happened.

There are men still trying to succeed in the mining business while thinking it is essential in mining that a complete plant be the first thing given attention. Upon the showing in a ten-foot hole, such men will induce capital to take interests enough to provide the wherewithal for purchasing and installing an equipment capable of handling and treating the output of a big mine. This is a grievous mistake that comes about through misconceptions. It is often true that ores of the kind these mines are expected to produce should be treated upon the ground. But it is also true, and far more essential, that there be enough ore to supply the treatment [158] works. It is rank folly then to spend the money needed to make a mine upon a plant to handle the product. Money should be spent, first, in exploitation and proving the value of a property. If the proof is forthcoming, it is then time enough to erect the plant. Meanwhile, during the development stages of a mine, the proper amount of experimentation can be conducted to ascertain the correct process for treating the ore. If ores are produced in abundance, they may be shipped for treatment in custom works until such time as the company's own plant is ready; or the ores may be stocked up for emergency mill supply at future times when it may be compulsory to curtail the mine production because of accidents or other unforeseen causes.

There are still guys trying to succeed in the mining business who think that the first priority should be a complete plant. Based on what they see in a ten-foot hole, they convince investors to put in enough money to buy and set up equipment capable of handling and processing the output of a large mine. This is a serious mistake that comes from misunderstandings. It's often true that the type of ore these mines are expected to produce should be treated on-site. But it's also true, and much more important, that there needs to be enough ore to keep the treatment facilities running. It's just plain foolish to spend the money needed to develop a mine on facilities to process the product. The money should first go towards exploring and proving the value of the property. If the evidence is there, then it’s the right time to build the plant. In the meantime, during the mine's development phases, the right amount of experimentation can be done to figure out the best way to treat the ore. If ore is produced in large quantities, it can be sent to custom mills for processing until the company’s own plant is ready; or the ore can be stored for future emergencies when it may be necessary to reduce mine output due to accidents or other unexpected issues.

One who considers these matters from an economic standpoint will recognize that there must exist some proper ratio of mine output to treatment capacity. Just what this relationship is constitutes a serious problem for each particular mine and there cannot be stated any [159] ironclad rules that may be applied to all cases.

One who looks at these issues from an economic perspective will see that there has to be a proper balance between mine output and treatment capacity. Determining what this relationship is poses a significant challenge for each specific mine, and there can't be any strict rules that apply to all situations. [159]

In the first place, we believe a mine will be operated at its greatest economy when it is making its largest and most regular output. This being the case, we must agree that the plant and mill must be capable of taking care of this maximum output. It would then seem axiomatic that the equipment must be calculated according to the mine's capabilities. But, in the youth of a mine, how are we to know what its mature capacity will be? Here comes the rub.

In the first place, we believe a mine will be operated at its greatest efficiency when it's producing its highest and most consistent output. Since this is true, we have to agree that the plant and mill must be capable of handling this maximum output. It seems obvious that the equipment should be designed based on the mine's potential. But, in the early stages of a mine, how can we know what its full capacity will be? That’s the tough part.

Very nice discussions along this line have been indulged in by British and American representative mining men. When speaking of operations that are typical of some foreign mining districts and especially those that possess ore-bodies whose extents are readily calculated, no clever prophecy is required to ascertain the proper amount of equipment. But there are many regions, especially in our own country, where nobody can predict, with any degree of [160] accuracy, how extensive will prove to be the natural reserves of any mine. It is in such places as these that hard study and careful guessing are needed, and we are inclined to agree with George J. Bancroft when he says, "To my mind, there is more credit due to those who take up the hard propositions and make them pay than to those who exploit bonanzas along purely scientific lines. The first usually require energy, sagacity, perseverance and, very often, daring; while the others need chiefly cool calculation."

Very interesting discussions on this topic have been engaged in by British and American mining representatives. When talking about operations typical of certain foreign mining areas, especially those with ore bodies whose size can be easily estimated, no clever predictions are needed to determine the right amount of equipment. However, there are many regions, especially in our own country, where no one can accurately predict how extensive the natural reserves of any mine will be. In these areas, thorough study and careful estimation are essential, and we agree with George J. Bancroft when he says, "In my opinion, more credit goes to those who tackle the tough challenges and make them profitable than to those who exploit easy opportunities through purely scientific methods. The former usually require energy, insight, perseverance, and often, bravery; while the latter mainly rely on careful calculations."

It is a safe practice, throughout the world, whenever there is no absolute means of reaching figures of a mine's ultimate production, to erect the treatment installations in units. By a "unit" is here meant the outfit of machinery and the other equipment which will handle a specified round number of tons per day. In some districts, a unit will be for the treatment of 10 tons; in other districts this number may run up to 100 tons. In the plans provisions are made for additions, from time to time, as mining [161] development warrants. Very much the same scheme should be followed in the erection of the plant for carrying on the operations, which are strictly those of obtaining the ore from the earth. That is, mining equipment, as well as the milling equipment, should be on a flexible plan so as to be readily adapted to an increased scale of operation. There must be space provided for harmonious additions to the initial plant whenever such extra parts are required.

It’s a common practice around the world, when there isn’t a definite way to determine a mine’s ultimate production, to set up treatment facilities in units. A "unit" refers to the set of machinery and other equipment designed to process a specific number of tons per day. In some areas, a unit might handle 10 tons, while in others it could go up to 100 tons. The planning includes provisions for future expansions as mining development progresses. A similar approach should be taken when setting up the plant for handling the operations that focus on extracting ore from the ground. This means that both the mining equipment and the milling equipment should be designed flexibly to easily accommodate increased operational scale. There should be enough space for seamless additions to the initial plant whenever extra components are needed.

Spray Shaft House of Copper Queen Consolidated Mining Co., Bisbee, Arizona.

Spray Shaft House of Copper Queen Consolidated Mining Co., Bisbee, Arizona.

Spray Shaft House of Copper Queen Consolidated Mining Co., Bisbee, Arizona.

Spray Shaft House of Copper Queen Consolidated Mining Co., Bisbee, Arizona.

XVIII
MINE MANAGEMENT.

No matter how splendid a company's holdings may be naturally, there cannot be expected any profits from the workings of the deposits if there be not a sound business management. H. C. Hoover, the prominent mining engineer and mine manager, says, "Good mine management is based upon three elements: first, sound engineering; second, proper coördination and efficiency of every human unit; third, economy in the purchase and consumption of supplies." And he goes on to emphasize the fact that "no complete manual will ever be published upon 'How to Become a Good Mine Manager.'" In view of this damper upon good intentions one might possess, and granting that the subject is one that cannot be taught (except along very general lines possibly), no attempt will be made to enter into arguments concerning this important subject of Mine Management. [163]

No matter how impressive a company's assets are, you can't expect any profits from the deposits without solid business management. H. C. Hoover, a well-known mining engineer and mine manager, states, "Good mine management relies on three key factors: first, solid engineering; second, effective coordination and efficiency of all individuals; third, being frugal with buying and using supplies." He also stresses that "no comprehensive guide will ever be published on 'How to Become a Good Mine Manager.'" Given this reality check on good intentions and acknowledging that the subject can't really be taught (apart from some very broad principles, perhaps), we won't delve into discussions about this critical topic of Mine Management. [163]

Good administrative ability can be improved by cultivation just as can an individual of the vegetable kingdom; but there must first be the existent, innate ability. No man should attempt such a hard proposition as the management of a mine, with its varied phases of activity, unless he has found himself possessing the fundamentals that go to assure success in managerial positions. Furthermore, he should not think, because he has been successful in running a clothing business or any other mercantile line, that he is certain to succeed in running a mine.

Good administrative skills can be developed through practice, just like a plant can grow; however, there must first be some natural talent. No one should take on the challenging task of managing a mine, with all its different operations, unless they have the basic skills necessary for success in management roles. Additionally, they shouldn't assume that because they’ve been successful running a clothing business or any other type of retail business, they will definitely succeed in managing a mine.

The duties of directors and president are pretty much the same in all sorts of incorporations. But, while there are many mining companies—and successful ones, too—that hold upon their directorates men who probably never saw a mine prior to their present ventures, it may still be stated that it is obviously advisable to select for such places men who have knowledge and sound ideas concerning the industry of mining. To be sure, if they are ignorant along mining [164] lines, they can, and often do, place the blame for their shortcomings upon their manager, their consulting engineer, or their superintendent. But this is not an auspicious state of affairs and it were well for stockholders to see to it that they elect to the directorate men who are cognizant of mining economics.

The roles of directors and the president are pretty much the same across different types of corporations. However, while there are many mining companies—some quite successful—that have directors who probably never set foot in a mine before their current roles, it’s still wise to choose individuals who have knowledge and solid ideas about the mining industry for these positions. Certainly, if they’re not well-versed in mining, they can, and often do, shift the blame for their failures onto their manager, consulting engineer, or superintendent. But this isn’t an ideal situation, and it would be smart for shareholders to ensure they elect directors who understand mining economics.

The well-organized mining concerns of today maintain their engineering staffs just as completely as do other great technical businesses. The engineer is a very important man in mining affairs. His duties are probably more varied than those that appertain to any other sort of engineering. His operations will extend into the realms of the mechanical, the civil, the chemical, the metallurgical, the hydraulic, and the electrical engineers. He must be posted along the latest conceptions in geology, mineralogy, and physics. Besides he should be an accurate and rapid mathematician and draftsman.

The well-organized mining companies of today have engineering teams just as fully staffed as other major technical businesses. The engineer plays a crucial role in mining operations. His responsibilities are likely more diverse than those in any other type of engineering. His work spans the fields of mechanical, civil, chemical, metallurgical, hydraulic, and electrical engineering. He needs to be up-to-date on the latest ideas in geology, mineralogy, and physics. Additionally, he should be an accurate and quick mathematician and draftsman.

The manager finds in the engineer his most helpful and trusted aid. Often the engineer performs many of the functions usually attaching to the office of [165] manager and, in the absence of the latter person, he may attend to all of the management. As stated above, the qualities that make a good manager are inherent; hence, to a certain extent, we may hold the deduction that good mining engineers, also, must possess innate qualities. Yet there may be pointed out this distinction between the make-up of a good man for manager and that of a good mining engineer: one, as said, cannot learn his business except through his own experience, while the other can receive vast benefit by study of a theoretical nature and by practice.

The manager sees the engineer as his most helpful and trusted support. Often, the engineer takes on many of the responsibilities typically associated with the manager's role and, when the manager is absent, may handle all management tasks. As mentioned earlier, the qualities that make a good manager are inherent; therefore, to some extent, we can conclude that good mining engineers must also have innate qualities. However, there is a key distinction between what makes a good manager and what makes a good mining engineer: one, as mentioned, can only learn their business through personal experience, while the other can gain significant benefit from theoretical study and practice.

Lately, there is much said about the consulting mining engineer. His field of usefulness is broad. He can be asked to add his opinions and recommendations to those of the regular engineer, at any time; he can be used at times when the duties are too much for the resident engineer; he can be called upon to substitute; he need not live near the property, but may visit it periodically. Thus, while his retention is deemed remunerative, his services are available at a [166] fractional part of what he would demand if he were employed exclusively by the company.

Lately, there’s been a lot of talk about the consulting mining engineer. His area of expertise is extensive. He can be asked to provide his insights and recommendations alongside those of the regular engineer at any time; he can step in when the resident engineer has too much on their plate; he can be called in as a substitute; he doesn’t need to live close to the site but can visit it as needed. Therefore, while hiring him is considered worthwhile, his services are available at a [166] fraction of what he would charge if he were exclusively employed by the company.

Under ordinary working conditions, it should be considered just as essential for a mine to take an occasional inventory as it is for a mercantile establishment. In truth, there is far more need in mining operations of the knowledge thus derived than in any other business. In mining, as already suggested, the business is one of selling off the stock in trade without replenishing it. The opening of more reserves of ore is not bringing more goods into the stock, but it may be likened to simply unpacking more goods in the storehouse. No new reserve can be added—they can simply be found and unpacked, as it were.

Under normal working conditions, it's just as important for a mine to do periodic inventories as it is for a retail business. In fact, there's a greater need for the insights gained from these inventories in mining than in any other industry. As mentioned earlier, the mining business revolves around selling off its inventory without restocking it. Discovering more ore reserves doesn't mean adding more products to the inventory; it’s more like just unpacking additional goods stored away. New reserves can’t be added—they can only be discovered and unpacked, so to speak.

This finding entails the greatest amount of concern, and upon its successful practice depends the life of the mine. The presumption is strong that many mines have been abandoned while they really contained possibilities; but lack of knowledge of things geological, or perhaps failures to explore, permitted the operators [167] to remain ignorant of the splendid assets that were available. Proof of this error has been found in many mines that have been subsequently re-opened.

This finding raises significant concern, and the mine's future depends on how well it is implemented. It's likely that several mines have been closed down despite having potential; however, a lack of geological knowledge or failures to explore may have kept the operators [167] unaware of the valuable resources available. Evidence of this mistake has been uncovered in many mines that have been reopened since.

The work of sizing up the quantity and the value of available ore is known as sampling. It is not well to limit the practice of sampling to the times only when a sale is contemplated. Reports based upon careful sampling should be issued frequently. Some companies employ men whose sole occupation is the daily sampling of every working face. The assay results obtained from the collected samples inform the superintendent just "how the stuff is holding up" throughout the mine and he governs his work accordingly. At longer intervals, the engineer should go into the work more thoroughly by not only taking very careful, scientific samples (not the usual "grab" samples taken by the daily sampler) but also by making careful memoranda of the physical appearances of the ore with its thickness and all geological data that will tend to throw light upon the permanency of each body. The [168] engineer's monthly report will then be a substantial guide to the manager and the directors.

The process of assessing the quantity and value of available ore is called sampling. It's not a good idea to limit sampling only to times when a sale is being considered. Reports based on thorough sampling should be issued regularly. Some companies hire individuals whose only job is to sample every working face daily. The assay results from the collected samples inform the superintendent about "how the stuff is holding up" throughout the mine, and he adjusts his work accordingly. At longer intervals, the engineer should conduct a more in-depth examination by not only taking very precise, scientific samples (rather than the typical "grab" samples collected by the daily sampler) but also by making detailed notes of the ore's physical characteristics, including its thickness and all geological data that can provide insights into the stability of each body. The [168] engineer's monthly report will then serve as a valuable guide for the manager and the directors.

Managers, too, are expected to make periodical reports—monthly, quarterly, or annually—to the directors who, in turn, issue reports to the stockholders. The reports of managers and directors are not usually technical in their nature, although sometimes it is the practice of a manager to attach the engineer's report to his own for the perusal of such readers as may desire to dip into the technical affairs of the operations. Usually, the directors' reports are of a simple, financial nature, stating the conditions of affairs in plain business language to the persons whose cash has been invested in the enterprise.

Managers are also expected to provide regular reports—monthly, quarterly, or annually—to the directors, who then report to the stockholders. The reports from managers and directors are usually not technical, although sometimes a manager will include the engineer's report with their own for those readers interested in the technical details of the operations. Typically, the directors' reports are straightforward and financial, outlining the state of affairs in clear business language for the individuals who have invested money in the enterprise.

It may happen that, for some reason, a special report is desired by the directors who may be contemplating some consolidation or other financial move and both the manager and the engineer will be required to furnish detailed statements concerning their respective branches. If a sale is planned, it may be that not only [169] the company's engineer, but very probably another engineer engaged by the contemplative purchaser, will make examinations. They may work together or separately, as best suits them mutually, but it is upon the reports issued by them that the satisfactory price for the exchange of title is based. [170]

It might happen that, for some reason, the directors want a special report because they are considering a consolidation or some other financial move. Both the manager and the engineer will need to provide detailed statements about their respective areas. If a sale is in the works, it could be that not only the company’s engineer but also another engineer hired by the potential buyer will conduct assessments. They may collaborate or work independently, depending on what suits them both, but the reports they produce will determine the fair price for the transfer of ownership. [170]

XIX
PRICES OF METALS.

There is only one product of mines that has a constant market value, viz., gold. The precious metals, gold, silver, and platinum, are sold by the Troy ounce: the base metals are all handled and dealt with on avoirdupois weights. Copper, lead, zinc, tin, and nickel are quoted in cents per pound avoirdupois. Iron and manganese are curiously sold by mines to smelting companies on the ton of ore basis.

There is only one product from mines that has a stable market value: gold. The precious metals—gold, silver, and platinum—are sold by the Troy ounce, while base metals are measured and traded using avoirdupois weights. Copper, lead, zinc, tin, and nickel are priced in cents per pound avoirdupois. Iron and manganese are uniquely sold by mines to smelting companies based on tons of ore.

Since gold has been found in every known rock of every geologic age and is of world-wide distribution; since it possesses physical properties that long ago placed it at the head of the list of desirable metals; and further, since it does not occur in very condensed amounts, generally; this metal was selected as the standard of value by which the worth of every other commodity in the world is fixed. It must therefore be possessed of [171] a fixed market value, and one never looks for quotations on pure gold. The price of pure gold is set at $20.6718. This very peculiar value is known as the "mint value," and is the price which the Government of the United States pays for all of its coinage gold. Among miners, as a rule, the price is thought of as $20 per ounce, and this is probably because this is more nearly the actual return the miner has been accustomed to obtain from companies who have bought and treated his ores. Most all the gold produced in the world is associated with other metals, such as silver, copper, or platinum, so that the bullion recovered in milling or smelting will usually contain the gold alloyed with such other metals and the gold is said to be not "fine," or pure. The fineness of gold in the metallic state is expressed in two ways. Jewelers have the carat system, while mints use the decimal system in expressing such degrees of purity. Pure gold is 24-carat fine. An alloy of 3 parts gold and 1 part copper would be considered as 18-carat gold. In the decimal system, pure gold is called [172] 1,000 fine, and the various degrees of purity are then expressed in their true proportional amounts. Thus the same alloy as cited above would be called 750 fine gold.

Since gold has been found in every type of rock from every geological age and is distributed worldwide; since it has physical properties that long ago made it the most sought-after metal; and since it generally doesn't occur in very concentrated amounts, this metal was chosen as the standard of value that determines the worth of every other commodity in the world. Therefore, it must have a constant market value, and one doesn't look for quotes on pure gold. The price of pure gold is set at $20.6718. This unique value is known as the "mint value," and it's the price that the United States Government pays for all its coinage gold. Miners usually think of the price as $20 per ounce, likely because this is closer to the actual return they have come to expect from companies that purchase and process their ores. Nearly all the gold produced globally is found with other metals like silver, copper, or platinum, so the bullion recovered in milling or smelting usually contains gold mixed with these other metals, and it's said to be not "fine" or pure. The purity of gold in its metallic form is expressed in two ways. Jewelers use the carat system, while mints employ the decimal system to express these purity levels. Pure gold is 24-carat fine. An alloy of 3 parts gold and 1 part copper would be classified as 18-carat gold. In the decimal system, pure gold is referred to as 1,000 fine, and various levels of purity are expressed in their correct proportional amounts. Thus, the same alloy mentioned earlier would be referred to as 750 fine gold.

Silver has a fluctuating market value although attempts have been made, at times, to establish its value at some fixed ratio to the value of gold. In fact, a reader may occasionally run across statistics of silver production in which it appears as though there were a fixed value for the metal, but this will be found to be due to the use of what is known as the "coinage value," which is $1.29198. This figure will be recognized as our old acquaintance, "16 to 1," i.e., this price for silver being one-sixteenth of the fixed price for gold. There is actually no such fixation, and prices for silver are established every business day of the year in the great metal markets of the world, London and New York.

Silver has a changing market value, even though there have been efforts at times to set its value at a fixed ratio to gold. In fact, a reader might sometimes come across statistics about silver production that suggest a fixed value for the metal, but this is usually because of what is called the "coinage value," which is $1.29198. This number will be familiar as our old friend, "16 to 1," meaning this price for silver is one-sixteenth of the fixed price for gold. However, there is no actual fixation, and silver prices are determined every business day of the year in the major metal markets of the world, London and New York.

Platinum has been increasing in market value during recent years and the quotations have ranged up so high that it is now more than twice as valuable as gold. [173] The reasons for this high price are that the production of the metal is limited, whereas the uses for the metal have been increasing. The greatest production of this metal is in the Ural Mountains of Russia, and the output from this region is handled by a few concerns who virtually possess a monopoly. These companies are able to maintain the production practically constant and to cause the market price to fluctuate.

Platinum has been rising in market value in recent years, and prices have gone up so high that it's now more than twice as valuable as gold. [173] The reasons for this high price include limited production of the metal, while its uses have been increasing. The largest production of this metal comes from the Ural Mountains in Russia, and a few companies control the output from this region, effectively holding a monopoly. These companies can keep production relatively steady and influence market prices.

Tin is found in commercial amounts in but very few regions. There is but one mineral mined as an ore of tin, viz., cassiterite, the oxide, which is 78 per cent tin. Tin is found in both veins and placers and the great bulk of the metal is now being derived from the latter type of bodies in the Malay Peninsula and the Straits of the East Indies. Formerly, Cornwall produced the world's supply, from veins. Although the United States consumes 35 per cent to 40 per cent of the world's production, the country does not produce 1 per cent of this production. Since the main source of our tin is British territory, the markets are controlled by [174] London, and quotations are issued daily from that center. Such quotations are given in units of English money per long ton (2240 pounds) of metal. However, prices are also quoted at New York, daily, in cents per pound, and there is a real difference in value between the two quotations to take care of freights and duty. For instance, on a certain date, quotations were £190 10s, and 42c. The average price during 1911 in New York was 42.281 cents.

Tin is found in commercial quantities in only a few regions. The only mineral mined as a tin ore is cassiterite, which is 78 percent tin. Tin is located in both veins and placers, but the majority of the metal is now being sourced from placers in the Malay Peninsula and the East Indies. In the past, Cornwall supplied the world's tin from veins. Although the United States consumes about 35 to 40 percent of the world's tin production, it produces less than 1 percent of it. Since most of our tin comes from British territory, the markets are controlled by [174] London, where daily prices are published. These prices are listed in units of British currency per long ton (2240 pounds) of metal. Additionally, prices are quoted in New York daily in cents per pound, and there’s a notable difference in value between the two due to shipping and duties. For example, on a certain date, the prices were £190 10s, and 42c. The average price in New York during 1911 was 42.281 cents.

The chief supply of nickel now comes from the Canadian districts of Cobalt and Sudbury, where this metal occurs accompanying rich silver deposits. The metal is sold by the pound avoirdupois and prices in January, 1912, ranged from 40c. to 50c.

The main source of nickel now comes from the Canadian areas of Cobalt and Sudbury, where this metal is found alongside valuable silver deposits. The metal is sold by the pound avoirdupois, and prices in January 1912 ranged from 40 cents to 50 cents.

Tungsten is a metal which has been finding more and more uses of late years, but the production has remained quite limited. Three-quarters of the world's total production in 1911 came from a small district in Boulder County. Colorado. The quotations on this metal are given in dollars per ton of concentrated [175] ore, and the price is for a certain percentage of WO3, the oxide of wolfram (tungsten). The schedule of prices announced in April, 1912, for Boulder County ores and concentrates provides as follows, a unit being understood to mean 1 per cent or 20 pounds per ton: For material assaying 10 per cent WO3, $3.50 per unit; for 20 per cent WO3, $4.40 per unit; for 40 per cent and more, $4.90 per unit. Ore containing, say, 50 per cent of the tungsten radical is thus salable at $245 per ton, the mineral itself thus bringing a price of 24-1/2 cents per pound.

Tungsten is a metal that has been finding more and more uses in recent years, but its production has remained quite limited. Three-quarters of the world's total production in 1911 came from a small area in Boulder County, Colorado. The prices for this metal are quoted in dollars per ton of concentrated [175] ore, based on a specific percentage of WO3, which is the oxide of tungsten (wolfram). The price schedule announced in April 1912 for Boulder County ores and concentrates is as follows, with a unit meaning 1 percent or 20 pounds per ton: For material with 10 percent WO3, $3.50 per unit; for 20 percent WO3, $4.40 per unit; for 40 percent and above, $4.90 per unit. Ore containing about 50 percent of tungsten can be sold for $245 per ton, which means the mineral itself fetches a price of 24.5 cents per pound.

Although copper is used and sold in very large lots commercially, it continues to be quoted upon the pound basis. The United States produces about 60 per cent of the whole amount mined in the world and the prices are made in New York daily. The amount of copper mined in this country in 1911 was 1,431,938,338 pounds and the price varied between 11.989 cents and 13.768 cents. There are always at least two quotations every day on copper, one being on "lake" and another on "electrolytic". By these terms [176] are meant, respectively, copper produced in the Lake Superior region and the copper from other mines. The Lake Superior copper is the purest in the world and it always sells for a fraction of a cent per pound more than the other coppers which are refined by electrolysis.

Although copper is traded and sold in very large quantities commercially, it is still priced by the pound. The United States accounts for about 60 percent of the total copper mined worldwide, with prices being set daily in New York. In 1911, the amount of copper mined in this country was 1,431,938,338 pounds, and the price fluctuated between 11.989 cents and 13.768 cents. There are always at least two quotes on copper every day, one for "lake" copper and another for "electrolytic" copper. By these terms, [176] refer to copper produced in the Lake Superior region and copper from other mines, respectively. Lake Superior copper is the purest in the world, and it typically sells for a few tenths of a cent more per pound than the other copper that is refined using electrolysis.

Metallic iron is reduced from a number of different ores, but by far the bulk of pig-iron is made from the oxides and carbonates of iron. Such ores, in the United States, are obtained principally in Minnesota, Michigan, Wisconsin, and Alabama. As already stated, the quotations on iron are based upon the ores rather than the pig-iron, and there are two types of such ore recognized. If the ore is suitable for the making of Bessemer steel, it is given a certain quotation per ton, while if it cannot be used for such a purpose, it is given a non-Bessemer rating and is used for casting. The greatest iron-mining region in the world is in the Lake Superior country. Here are a number of districts that are known as "ranges." In some of these ranges mining is by underground methods, while in others the [177] excavation is entirely in the open by the use of great steam shovels. The outputs of these ranges go by rail and water to the great smelting points along the Great Lakes and at Pittsburg.

Metallic iron is extracted from various ores, but most pig iron is made from iron oxides and carbonates. In the United States, these ores are primarily found in Minnesota, Michigan, Wisconsin, and Alabama. As mentioned earlier, the prices for iron are based on the ores instead of the pig iron, and there are two types of these ores recognized. If the ore is suitable for producing Bessemer steel, it is priced at a specific rate per ton; if it can't be used for that purpose, it receives a non-Bessemer rating and is used for casting instead. The largest iron-mining region in the world is in the Lake Superior area, which has several districts known as "ranges." In some of these ranges, mining is done underground, while in others, excavation is entirely surface-based using large steam shovels. The output from these ranges is transported by rail and water to major smelting locations along the Great Lakes and in Pittsburgh.

The metallic zinc on the market is known as spelter. All quotations on this metal are given in two systems, the "pounds Sterling per long ton" and the "cents per pound." The average prices during 1911 were respectively, £25.281 and 5.758c. The American quotations are frequently given in the unit of dollars per hundredweight. This offers no confusion, whatever, for under this nomenclature, the average price for 1911 would be stated as $5.758. In the zinc-mining regions of the Mississippi Valley, the producers of ore have a practice of putting the mines' products through their own mills at the mines and making concentrates of the zinc mineral, which is usually blende or "jack," and this concentrated stuff is then sold to smelting companies at the daily quotations per ton of 60 per cent ore. During 1911 the average price paid in the Joplin District [178] was $41.45. Since this amount bought 1,200 pounds of metallic zinc, it is evident that the miner received only about 3.45 cents per pound for his metal, the discrepancy between this sum and the New York quotation being consumed in costs of smelting and shipment and in profits to the middlemen.

The metallic zinc available today is known as spelter. All price quotes for this metal are made using two systems: "pounds Sterling per long ton" and "cents per pound." The average prices in 1911 were £25.281 and 5.758c, respectively. American prices are often given in dollars per hundredweight, which avoids confusion; under this system, the average price for 1911 would be $5.758. In the zinc-mining areas of the Mississippi Valley, ore producers typically process their mine's output through their own mills to create concentrates of the zinc mineral, usually blende or "jack," and this concentrated material is sold to smelting companies at the daily rate per ton for 60 percent ore. In 1911, the average price paid in the Joplin District [178] was $41.45. Since this amount purchased 1,200 pounds of metallic zinc, it’s clear that the miner only received about 3.45 cents per pound for his metal, with the difference between this amount and the New York quote going to cover smelting and shipping costs, as well as profits for middlemen.

Lead is sold upon a plan exactly similar to zinc. It has the same various quotations. For example, the 1911 prices in London, New York, and Joplin averaged, respectively, £13.970, 4.420c., and $56.76.

Lead is sold based on a plan that's exactly like zinc. It has the same different price listings. For example, the 1911 prices in London, New York, and Joplin averaged, respectively, £13.970, 4.420c., and $56.76.

Quicksilver is sold by the "flask" of 75 pounds. The price ranges in the neighborhood of $43 to $45.

Quicksilver is sold by the "flask" of 75 pounds. The price ranges from about $43 to $45.

There are numerous other metals, but the more common ones are given above. Below is given a graphical exhibit of the course of the prices of lead, spelter, standard (electrolytic) and lake copper, pig-iron, and tin for a number of years. A study of this chart is interesting in noting the waves or fluctuations that have covered periods of years. This chart is reproduced from The Engineering and Mining Journal.

There are many other metals, but the more common ones are listed above. Below is a graph showing the price trends for lead, spelter, standard (electrolytic) and lake copper, pig iron, and tin over several years. Analyzing this chart is interesting for observing the ups and downs that have occurred over the years. This chart is taken from The Engineering and Mining Journal.

Diagram of Metal Market for One-third of a Century

Diagram of Metal Market for One-third of a Century

Diagram of Metal Market for One-third of a Century

Diagram of the Metal Market for One-Third of a Century

XX
MINE ACCOUNTING.

While there has been a great deal of attention given to the matter of keeping systematic mine accounts, both in the main offices and those at the works, there still is a lack of uniformity in practice. In the bookkeeping of manufacturing and mercantile institutions, uniform practices or systems have become a feature. But there have been good reasons for the absence of similar methods in mine offices.

While there has been a lot of attention paid to maintaining systematic mine accounts, both at the main offices and at the sites, there is still a lack of consistency in practice. In the bookkeeping of manufacturing and retail businesses, standard practices or systems have become a norm. However, there are valid reasons for the lack of similar methods in mine offices.

There will be found to exist some uniformity in the accounting as practised by the mines of a particular district which are operating under similar conditions; but when one considers that the mines of various districts have quite dissimilar conditions throughout almost every phase of the business, it is not surprising that different methods must be employed in the keeping of their accounts. It is unavoidable. Mines extracting different [180] metals or different kinds of coal will find it necessary to keep quite unlike records. Mines with their own mills will likewise require a different system of accounting from those that ship their products to custom works. Open and underground mines will need quite different styles of accounts.

There will be some consistency in the accounting practices used by the mines in a specific area that are working under similar conditions; however, when you consider that the mines in different areas have very different conditions in almost every aspect of the business, it’s not surprising that various methods need to be used for their accounting. It’s unavoidable. Mines extracting different [180] metals or various types of coal will need to maintain quite different records. Mines that have their own mills will also need a different accounting system from those that send their products to custom facilities. Open-pit and underground mines will require entirely different accounting styles.

So, it is not possible to recommend any one method of mine accounting. The best way to become posted upon this subject is to investigate the schemes, the blank forms and the books of some of the established, successful companies here and there about the world. In this way, ideas will be collected, and it will be possible for the investigator to evolve his own schemes for recording the accounts of his company.

So, it's not possible to recommend any single method for accounting. The best way to get up to speed on this topic is to look into the systems, the blank forms, and the records of some of the established, successful companies around the world. By doing this, you'll gather ideas and be able to create your own systems for keeping track of your company's accounts.

It has come to be recognized as contributing to economy to maintain systems of accounts that will enter into minutiæ concerning every branch of the business. Just how far this can be carried without creating office expenses that will exceed the benefits to be derived from the detailed information remains a question [181] to be decided by each manager. There are companies with accounts so perfected that it is possible to quickly ascertain, to a fraction of a cent, what the expenditures of any day have been for any particular part of the operations, as for instance, the haulage per ton underground, or the fuse employed in the blasting of a particular stope. Such details are highly useful since they prevent leaks in the costs; but it is a problem to decide to what extent it is economy to carry them. These data also furnish the superintendent information concerning the efficiency of his many laborers and the machinery. Labor-saving inventions, such as the printed blank form, and the loose leaf, are put to excellent use in mining offices.

It has become clear that keeping detailed accounts for every part of the business helps with efficiency. The extent to which this can be done without incurring office costs that outweigh the benefits of having such detailed information is a decision each manager must make. Some companies have accounting systems so advanced that they can instantly determine

There are strong companies operating great mining plants whose records are open to the perusal of any individual, be he stockholder or not. In the office of such a company, a person may turn to the accounts and see for himself how much it costs to maintain each and all of the operations and he can learn the [182] size and the value of all shipments of products of any sort—ore, concentrates, coal, matte, or bullion. Again, there are those companies that are so secretive about everything connected with their work that even the Government is unable to learn any particulars, except at very great trouble.

There are strong companies that run great mining operations, and their records are available for anyone to check, whether they're a stockholder or not. In the office of such a company, a person can look at the accounts and see for themselves how much it costs to maintain all the operations, and they can find out the size and value of all product shipments—whether it’s ore, concentrates, coal, matte, or bullion. On the other hand, some companies are so secretive about everything related to their work that even the Government struggles to uncover any details, except with significant effort.

The Portland Gold Mining Company, operating a great property at Victor, in the Cripple Creek District, is an instance of the first sort, while the United Verde mine, at Jerome, Arizona, may be taken to represent the second sort. Both of these mines have made splendid records. It cannot be seen wherein the second mine is required to maintain secrecy, for there is no danger of litigation from neighboring property holders, the one company controlling, practically, the mining in its neighborhood. The presumption is that the owners hold their business to be nobody's else and they have a right to keep their affairs secret if they desire. On the other hand, the Portland is surrounded by good mines which profit by knowing the details of [183] operating costs and incomes of their neighbor; but it is found to cost no more to be open and above board than to keep things under guard. The Colorado Fuel and Iron Company will not divulge any particulars concerning its mining movements; but there are other just as great mining companies that will explain every detail.

The Portland Gold Mining Company, operating a major site in Victor, in the Cripple Creek District, is an example of the first type, while the United Verde mine in Jerome, Arizona, represents the second type. Both these mines have impressive records. It's unclear why the second mine needs to keep things secret, as there’s no risk of lawsuits from nearby property owners, since one company basically controls the mining in that area. The assumption is that the owners believe their business is nobody else's concern and they have the right to keep their operations private if they choose. On the other hand, the Portland is surrounded by solid mines that benefit from knowing the specifics of operating costs and revenues of their neighbor; however, it turns out that being open and transparent costs just as much as keeping things guarded. The Colorado Fuel and Iron Company won’t share any details about its mining operations, but there are other equally large mining companies that will provide detailed explanations.

The Clark copper companies, of Butte, Montana, did not permit much information to escape their offices, while the neighboring Amalgamated companies gave particulars freely.

The Clark copper companies in Butte, Montana, kept a tight lid on information coming out of their offices, while the nearby Amalgamated companies shared details openly.

The question of secrecy should be considered, and if there is no very good excuse for maintaining a privacy it should not be instituted. The trend of all modern thought is along the line of publicity in all our dealings. The only persons who have a reasonable right to be secretive are those who have something they do not care to share or divulge to their fellow-men. Law breakers, tax dodgers, and trespassers, could be put into one class; persons doing research work which it is premature to publish are a more [184] respectable class; manufacturers with strong competition in the sales markets are in a measure excusable; even a mine which is producing some material in the sale of which it attempts to maintain a monopoly might be excusable. But it is hard to see what excuse or benefit there is for a coal or a copper mining company to prevent a knowledge of its affairs, if the business is being conducted along strictly legitimate lines. [185]

The issue of secrecy needs to be addressed, and if there's no really good reason to keep things private, it shouldn’t be done. The general direction of modern thinking favors transparency in all our interactions. The only people who have a valid reason to be secretive are those who have something they don't want to share with others. Lawbreakers, tax evaders, and trespassers can be grouped together; researchers with findings that aren't ready for publication are a somewhat more respectable group; manufacturers facing tough competition in the market have some justification; and even a mining operation trying to maintain a monopoly on a certain material might have some reason for secrecy. However, it's hard to understand what justification or benefit there is for a coal or copper mining company to hide information about its operations if it's being run legitimately. [184] [185]

XXI
INVESTMENT IN MINING STOCKS.

As a feature of investment in mining stocks, there has always been a more or less open lure. Generally much larger returns are promised or are expected than in other kinds of investments. There may be absolutely no intention on the part of the seller to create this impression; but there does, somehow, exist in the memories of people accounts of wonderful fortunes that have been made in mining.

As a characteristic of investing in mining stocks, there's always been a somewhat obvious attraction. Typically, much higher returns are promised or expected compared to other types of investments. The seller might not intend to create this impression at all, but there still lingers in people's memories stories of incredible fortunes made in mining.

There is an amount of uncertainty about any mine or prospect that appeals to the speculative proclivities in humans and it is hard for most persons to resist the notion that greater or richer bodies of ore may, at any time, be discovered in their particular mining properties. Concerning the average stock purchaser, then, we may conclude that it is speculation rather than true investment that he is seeking. [186]

There’s a level of uncertainty about any mine or prospect that attracts our natural tendency to speculate, and it’s tough for most people to ignore the idea that larger or more valuable ore deposits could be found at any moment in their mining properties. So, when it comes to the average stock buyer, we can say that they’re looking for speculation rather than a genuine investment. [186]

The writer hopes that, even in the short preceding discussions, the reader will have come to agree with him and to understand that safe investments are as possible in mining as in any other business. It would be a great benefit to this great industry of mining were the public taught to take interests—that is, financial interests—in mining concerns with the same precautions and with the same sound business sense that accompany the purchases of interests in other enterprises. Writing along this line of thought, Mr. P. A. Leonard has this to say in The Mining World: "One very general difficulty seems to be that the man unacquainted with mines who is asked to invest either expects an unreasonable return for his money, or he blindly closes his eyes and takes what he calls a 'flyer,' expecting little more from it than he would if he bought margins on 'change or bet on a horse race."

The writer hopes that, even in the brief discussions before this, the reader will agree and understand that safe investments are just as possible in mining as in any other business. It would greatly benefit this major industry if the public were educated to take financial interests in mining companies with the same care and sound business judgment that they apply to investments in other enterprises. Sharing this perspective, Mr. P. A. Leonard states in The Mining World: "One common challenge seems to be that individuals unfamiliar with mining who are asked to invest either expect an unreasonable return for their money or they blindly take what they call a 'flyer,' expecting little more than if they were buying margins on the stock exchange or betting on a horse race."

About the first thing that the promoters of a new mining company do is to issue a neat, attractive prospectus. It is a bait, no matter how reliable these men [187] may be nor how worthy the property they desire to work. Many of these documents are written in absolutely good faith and every representation is intended to be accurate. There are occasionally offered for sale stocks in mining properties that warrant the fullest confidence of the promoters and the investors. However, careful perusal of a great many of these pamphlets has led the writer to the conclusion that at least 75 per cent. of them are unreliable from the fact that they either wilfully misrepresent or because they grossly exaggerate the probabilities of success beyond all reason. Exaggeration is a habit with some people and it is used many times with no real criminal intent or even consciousness upon the part of the offender. But its effect is just as baneful when innocently inflicted as when it is used in a premeditated manner.

One of the first things that the promoters of a new mining company do is issue a sleek, attractive prospectus. It serves as a lure, regardless of how trustworthy these individuals may be or how valuable the property they want to develop is. Many of these documents are created in good faith, and each claim is meant to be accurate. Occasionally, there are stocks in mining properties for sale that genuinely deserve the full trust of both promoters and investors. However, a careful look at many of these pamphlets has led the writer to conclude that at least 75 percent of them are unreliable because they either intentionally misrepresent or greatly exaggerate the chances of success beyond all reason. Exaggeration is a tendency for some people, and it is often used without any real malicious intent or even awareness on the part of the offender. But its impact is just as harmful when done innocently as it is when used deliberately.

Good, worthy mining property does not need to be hawked, usually. There have been periods of financial unrest when it has seemed quite impossible for honest men to dispose of interests in [188] what were unquestionably reliable mining enterprises. At such times, there has been nothing to gain by any amount of teasing the public, and any attempts at forceful disposal of interests in the concerns have but served to kill any small remnants of confidence that the public may have possessed.

Good, valuable mining properties don’t usually need to be sold aggressively. There have been times of financial instability when it felt nearly impossible for honest people to sell their stakes in [188] what were certainly trustworthy mining ventures. During those times, trying to entice the public didn’t lead to any benefits, and any attempts to push the sale of stakes in these ventures only served to undermine whatever little confidence the public might have had.

Prospectuses are usually prepared for the reading of small investors who may feel inclined to risk a few dollars or, in other words, to speculate upon the representations contained in the seductive pamphlets. There are a few "Don'ts" which it would be well for any person inclined to invest in mining stocks to read, consider, and follow. For instance, never invest in any new stock whose company guarantees specific dividends. Profits in mining, except in rare cases, cannot be so accurately foretold as to warrant such a guarantee. We should remember that the success of any mine depends upon many, very many, contingencies and that some of them are invisible and are among Nature's secrets. Again, avoid placing any confidence in [189] those companies that are simultaneously selling treasury stock and declaring dividends. This is a very common practice of the numerous "get-rich-quick" concerns which Uncle Sam has been routing the past few years. Such crooked practice is difficult to eradicate, although severe penalties are awarded the transgressors.

Prospectuses are typically created for small investors who might be tempted to risk a little money or, in other words, speculate based on the claims made in these enticing pamphlets. There are a few "Don’ts" that anyone considering investing in mining stocks should read, reflect on, and adhere to. For example, never invest in any new stock from a company that guarantees specific dividends. Profits in mining, except in rare instances, can't be predicted accurately enough to justify such a guarantee. We must remember that the success of any mine relies on numerous factors, many of which are unseen and remain among Nature's mysteries. Additionally, avoid trusting those companies that are simultaneously selling treasury stock and declaring dividends. This is a common tactic among many "get-rich-quick" schemes that Uncle Sam has been cracking down on over the past few years. Such dishonest practices are hard to eliminate, even though there are serious penalties for those who break the rules.

The success which has been met in the operation of the great mining companies of the world can, in the majority of cases, be traced to the common sense which was exercised in the business management. The business of mining is legitimate. If mining is one of the basic industries of the world, how could the operation of a real mine be anything but a legitimate business? The mere fact that there have been neat opportunities for, and the practice of, fraud in the growth of this tremendous industry does not by any means, argue that the whole thing is founded upon unstable premises.

The success found in the operation of the great mining companies around the world can mostly be attributed to the practical judgment used in business management. The business of mining is legitimate. If mining is one of the core industries globally, how could running a real mine be anything but a legitimate business? The presence of opportunities for and the occurrence of fraud within this massive industry doesn’t necessarily mean that the whole enterprise is based on shaky foundations.

What is needed is a presentation of the industry in its legitimate aspect before all kinds of investors and this can be [190] done properly and effectively only by the rank and file of men interested in mining. These men should place themselves boldly on record as combating all sorts of deals that smack of fraud, and they should do their utmost to discourage all delusions that may exist in the mind of the public with reference to the supposed lure offered by mining.

What’s needed is a presentation of the industry in its real form to all types of investors, and this can only be done properly and effectively by the everyday workers in mining. These individuals should confidently speak out against any deals that seem fraudulent, and they should work hard to dispel any misconceptions the public may have about the supposed appeal of mining.

There have been too many causes of failure in mining for even a partial enumeration of them. There have been many errors in getting started, both on the part of the organizers and the investors. There have been many mistakes in management. Many blunders have been evidenced in the operation of mines which made very good starts. All of these failures are attributable to something outside of the mine's intrinsic worth; they are mistakes due to inexperience or misconception. Such shortcomings should not be tolerated in the make-up of a mine's managerial staff.

There have been so many reasons for failure in mining that even listing them partially is challenging. Many mistakes have been made during the initial stages, both by the organizers and the investors. There have also been numerous errors in management. Significant blunders have occurred in the operation of mines that initially had great potential. All of these failures can be traced back to factors unrelated to the mine's actual value; they stem from inexperience or misunderstandings. Such shortcomings should not be accepted in the composition of a mine's management team.

Perhaps one of the most common mistakes of mine managers is to submit to a condition of nepotism that is often furthered [191] by directors or stockholders. No responsible position around a mine should be filled by a novice. Just because a director has two or three sons needing situations does not make it incumbent upon a superintendent or a manager to jeopardize his reputation by employing these young men. Percy Williams, a veteran mining man, advised "Don't take your son or nephew or your clerk out of your store or business house and send him to Arizona or Colorado to run things for you at the mine. Sell out first. If you are a director in a mining company, do not force the manager or superintendent to find a job for all your unsuccessful friends and relatives. Let him hire his own men. Don't convert your mine into an asylum for ne'er-do-wells."

Perhaps one of the most common mistakes mine managers make is giving in to nepotism, which is often encouraged by directors or shareholders. No responsible position in a mine should be filled by someone inexperienced. Just because a director has two or three sons who need jobs doesn’t mean a superintendent or manager should risk their reputation by hiring them. Percy Williams, an experienced mining professional, advised, "Don't take your son, nephew, or your clerk out of your store or business and send them to run things for you at the mine. Sell out first. If you are a director in a mining company, don’t force the manager or superintendent to create jobs for all your unsuccessful friends and relatives. Let them hire their own staff. Don’t turn your mine into a refuge for those who can’t succeed."

As already stated, there is protection obtainable by every investor in mining. One may always secure, at reasonable cost, the services of competent engineers whose business consists in sizing up the worth of mining property. If the services of these men were more generally appreciated and secured, there would be [192] a great diminution in the number of disappointments following investments in mining. An eastern man of means complained to the writer about the way in which he had been "stung" in various mining investments. A little catechizing brought forth the facts that he knew absolutely nothing about mining in general and that, worse still, he had never investigated—that is, in a business-like manner—any of the propositions which had absorbed his ready money. Receiving no sympathy during the recital of his troubles but, instead, the assurance that he "got what was coming to him," he was prepared to sit up, take notice, and listen to a severe roasting which opened his eyes about mining matters. Now, this man has proved successful in other lines of business. He is a prominent lawyer and banker in his own city and has numerous, scattered, money-making interests. But he was content to go into mining without the investigation which it is certain he would have given to any other sort of an investment.

As already mentioned, every investor in mining can access protection. It's always possible to hire competent engineers, at a reasonable cost, who specialize in evaluating the worth of mining properties. If more people recognized and utilized these services, there would be a significant decrease in the number of disappointments after investing in mining. A wealthy man from the East expressed to me his frustration about being "stung" in various mining investments. After a bit of questioning, it became clear that he knew absolutely nothing about mining in general and, even worse, that he had never properly investigated any of the propositions that took his money. Instead of sympathy during his recounting of troubles, he was told that he "got what was coming to him," which prompted him to sit up, pay attention, and endure a stern lecture that opened his eyes about mining issues. This man has found success in other business ventures. He is a well-known lawyer and banker in his city and has various profitable interests. However, he was willing to dive into mining without the thorough research he would have done for any other type of investment.

The time should come when there [193] would not be such a prevalent "slaughter of the innocents" in mining investments. People must learn to curb their gullibility in such affairs. But this has proved almost impossible. Just as it is in the nature of some persons to gamble, and it takes something more than misfortune at gaming to wean them from the vice, so it is with a certain class of men who can not overcome the temptations of dabbling in mining. Such men will not desist even when they have suffered several delusions, and will continue to "send their good money after their bad," absolutely defiant of the well-meant advice of friends who are often in position to judge of the merits of any contemplated investment. Probably every mining engineer of any extended experience can tell of instances in which he has endeavored to discourage clients from investment in unworthy mining enterprises but in which the gambling instinct of the clients has overridden the sound advice.

The time should come when there [193] won't be such a widespread "slaughter of the innocents" in mining investments. People need to learn to control their gullibility in these matters. But this has proven almost impossible. Just like some people are naturally inclined to gamble, and it takes more than bad luck at gaming to pull them away from it, the same goes for a certain group of men who can't resist the allure of investing in mining. These individuals won't stop even after experiencing multiple disappointments, choosing to "send their good money after their bad," completely ignoring the well-meaning advice from friends who often have a better perspective on the potential of any proposed investment. Almost every mining engineer with considerable experience can share stories about instances where they tried to dissuade clients from putting money into questionable mining ventures, only to have the clients' gambling instincts triumph over sound advice.

During the early days of the wonderful Cripple Creek District, all sorts of wildcat tricks were successfully practiced [194] upon the "tenderfeet" and the "down-east suckers." In one case, stock was readily unloaded upon the representation that a person could stand in the door of the cabin on the property and "look right into the shaft-house of the Independence mine." This statement was not untrue, although grossly misleading; for while it was actually quite possible by the use of a telescope to span the intervening three or four miles, visually, the prospect lacked the propinquity to the famous mine that was the bait implied by the statement in the prospectus. This is but one of many ingenious tricks that were played. Did the outcome of this one fraud cure the victims of irrational mining investment?

During the early days of the amazing Cripple Creek District, all kinds of shady tricks were pulled on the "newbies" and the "eastern suckers." In one instance, people were easily sold shares by claiming that you could stand in the cabin's doorway and "look right into the shaft house of the Independence mine." This claim wasn’t entirely false, but it was very misleading; while it was indeed possible to use a telescope to see the mine from three or four miles away, the location was much further from the famous mine than the prospectus suggested. This is just one of many clever scams that were carried out. Did the fallout from this particular fraud stop the victims from making irrational mining investments?

Railroads, too, have, in the past, added their troubles to the mining men. Recent laws have, however, to a great extent, mitigated the annoyances and unjust practices that the common carrying companies have been in the habit of committing. It is now obligatory upon a railroad company to treat all shippers without favor or discrimination, so that the difficulties[195] formerly experienced by one mining company in getting enough ore cars to transport its shipments while its rival company could have cars in abundance, is now almost a thing of the past. It takes time to right all wrongs of this sort. It is a slow matter to get laws framed, passed through the necessary legislation, and made effective. But the outlook is favorable, along this line.

Railroads have historically added to the challenges faced by the mining industry. However, recent laws have significantly reduced the annoyances and unfair practices that common transportation companies used to engage in. Now, railroad companies are required to treat all shippers equally, without favoritism or discrimination, which means the struggles that one mining company once had in securing enough ore cars for its shipments—while its competitor had plenty of cars available—are nearly a thing of the past. It takes time to correct these kinds of issues. Formulating, passing, and implementing new laws is a gradual process. But the future looks promising in this regard.

The leasing system has exercised an influence upon the mining activity of many districts. By this system is meant the custom of renting or letting the whole, or fractional parts, of a mining property to miners who enter upon and work the premises, extract the ores, and pay to the owners a specified percentage of the receipts from the marketing of the ore. This practice has frequently been the only successful way of operating some mines. It has, at times, been the manner of operating practically every mine in certain districts.

The leasing system has influenced mining activity in many areas. This system refers to the practice of renting out all or part of a mining property to miners who then work the land, extract the ores, and pay the owners a set percentage of the earnings from selling the ore. This approach has often been the only effective way to operate some mines. At times, it has been the primary method used for almost every mine in certain regions.

In districts carrying pockets of very rich ore, "high grading" has been discouraged in this way, for the "leasers" [196] (incorrect, though common, word for lessees) do their own mining and there is much less object in stealing.

In areas with rich mineral deposits, "high grading" has been discouraged in this way, because the "leasers" [196] (an incorrect but commonly used term for lessees) do their own mining, making it much less appealing to steal.

In other instances of mines which have been operated by the owning companies until they were past a profitable stage, it has been proved possible to prolong the life of operations very materially by leasing the property to miners, who always work with more diligence and economy for themselves than they ever do when working under "day's pay." This feature of leasing has been quite a factor in the lives of some of the mines of the Cripple Creek District. Until the recent drainage of the district through the Roosevelt Tunnel, there were numerous small—and even some large—properties that had worked all the ore bodies previously known to exist above the water level of the district, and had been obliged to shut down because of the heavy pumping expenses. Company operation did not longer pay. But the plain "leaser" and his partner could go into such old workings and they could prospect and find ore bodies that had escaped the observation of the superintendents. [197] The expenses incurred in leasing are low. It is true that lessees will not probably take as good care of mine workings and equipment as will "company men," and often a property may be seriously crippled through the lack of sufficient timbering after having been in the hands of a set of lessees for some time. But, on the whole, there has probably been more benefit than loss through the letting of leases.

In other cases where companies have operated mines until they were no longer profitable, it has been shown that leasing the property to miners can significantly extend the life of operations. Miners tend to work harder and more efficiently for themselves than they do when paid by the hour. This leasing aspect has played a considerable role in the longevity of some mines in the Cripple Creek District. Before the recent drainage of the district through the Roosevelt Tunnel, there were many small—and even some large—properties that had already extracted all the ore they could find above the water level and had to shut down due to high pumping costs. It was no longer profitable for the company to operate. However, individual leaseholders could enter these old sites, prospect, and discover ore bodies that had been overlooked by the superintendents. [197] The costs associated with leasing are minimal. While it is true that lessees may not take as good care of the mine workings and equipment as company employees would, and a property might suffer from inadequate timbering after being operated by a group of lessees for a period of time, overall, leasing seems to have provided more benefits than drawbacks.

When, a few years ago, the plans of the National Forestry Service were put into effect, there was great complaint recorded concerning the rulings that were made against various miners. Some very well authenticated cases of wrongs were cited. However, it is now believed by all fair-minded men that there has been no intention, on the part of the officials of the Forest Service, to interfere with any legitimate mining enterprise. There was a well-founded object, viz., to put a stop to dishonest practices in obtaining title to timber lands by the misrepresentation of mineral finds.

When, a few years ago, the plans of the National Forestry Service were implemented, there was a lot of complaining about the decisions made against various miners. Several credible cases of injustices were mentioned. However, it is now believed by fair-minded people that the officials of the Forest Service did not intend to interfere with any legitimate mining ventures. There was a valid purpose, namely, to put an end to dishonest practices in acquiring title to timber lands through misrepresentation of mineral discoveries.

The General Land Office passed a rule [198] authorizing Foresters and Assistant Foresters to make inspections of all mining claims within their reserves and to report to the Secretary of the Interior. The idea embodied in this rule was that these men, being agents of the Government and upon the ground, are able to investigate the facts concerning every mining claim and its claimant and so to run across any evidences of fraud that might be attempted in the securing of title. Trouble immediately arose because the Foresters were not all experienced miners and prospectors and so were not thoroughly qualified to pass judgment upon the merits of mineral lands. This weakness has been admitted by the officers of the Service but the excuse has been offered that there was an immediate need for a great many Foresters and it was not possible to secure men trained in both forestry and mining at such short notice. "Just as soon as conditions became better understood, and money was available to allow the Service to hire men whose judgment in mining matters could not be gainsaid, such men were employed," says Paul G. Reddington, [199] recently Forester for the Rocky Mountain Regions. It is true that much fraud has been prevented in the practice of taking up Government lands and it is also quite true that the Forest Service is endeavoring to uplift the mining industry in the western portions of the United States.

The General Land Office enacted a rule [198] allowing Foresters and Assistant Foresters to inspect all mining claims within their reserves and report to the Secretary of the Interior. The purpose of this rule was that these individuals, as representatives of the government and being on-site, could investigate the details of each mining claim and its claimant, helping to identify any attempted fraud in securing title. Issues arose quickly since not all Foresters were experienced miners and prospectors, making them less qualified to assess the value of mineral lands. This limitation has been acknowledged by the Service officials, but they noted that there was an urgent demand for many Foresters, and it was not feasible to find people trained in both forestry and mining on such short notice. "As soon as the situation was better understood and funds became available to hire individuals whose expertise in mining could not be disputed, those individuals were brought on board," says Paul G. Reddington, [199] former Forester for the Rocky Mountain Regions. It's true that much fraud has been averted in the process of acquiring government lands, and it's also accurate that the Forest Service is working to improve the mining industry in the western United States.

Mining is bound to become a still stronger factor in civilization as metallurgical processes multiply and there are discovered means of more economically extracting the valuable contents of ores. Minerals which are not now ores—according to the accepted, scientific definition, because the values cannot be recovered at a profit—will, at some future period, become ores. It is not safe to make any close predictions along this line, for such marked reductions in treatment costs have been going on during the last few years that mining men are entertaining great expectations. Inventions for improvement in metallurgical lines are being placed upon the market so frequently that it is difficult for even the professional metallurgist to keep posted. This being true, it is clear that [200] the layman cannot expect to keep abreast of the metallurgical advance. At the same time, it is well for everybody to be slightly conversant with the wonderful advances being made in the reduction and dressing of ores. Conspicuous in this field are the improvements that have been effected in cyanidation, electrolytic amalgamation and extraction, and flotation. These processes are applicable to the lower grades of ore. Among the very recent successes in the treatment of very low-grade gold ores are the operations conducted in the new mills of the Portland Gold Mining Company, Stratton's Independence, and the Ajax Gold Mining Company, all in the Cripple Creek District. All of these mills are now treating old mine dumps, the contents of which were considered as absolutely waste matter at the time it was excavated. This stuff is now ore and its treatment is making fine profits. There is still a demand for cheaper methods of reducing ores of zinc. There are vast quantities of stuff that contains very good percentages of zinc, but the material cannot be mined [201] and treated at a profit under existing conditions. With the invention of something radically new in the metallurgy of this metal, there will be opened an entirely different aspect in the zinc-mining regions. The Leadville District possesses great reserves of this material that is being held until it may become "ore."

Mining is set to play an even bigger role in civilization as metallurgical processes increase and new methods are found to extract valuable materials from ores more economically. Minerals that aren't currently classified as ores—based on the scientific definition since they can't be profitably recovered—will eventually be recognized as ores in the future. It’s hard to make precise predictions in this area, as significant reductions in treatment costs have been happening over the last few years, sparking high hopes among mining professionals. Innovations in metallurgy are being introduced to the market so frequently that even skilled metallurgists find it hard to stay updated. Given this, it's clear that the average person can't expect to keep up with advances in metallurgy. Nevertheless, it's beneficial for everyone to have a basic understanding of the remarkable progress being made in ore reduction and processing. Notable improvements include advancements in cyanidation, electrolytic amalgamation and extraction, and flotation, which apply to lower-grade ores. Some recent successes in processing very low-grade gold ores can be seen in the new mills of the Portland Gold Mining Company, Stratton's Independence, and the Ajax Gold Mining Company, all located in the Cripple Creek District. These mills are currently processing old mine dumps that were considered waste when first excavated. This material is now seen as ore, and its processing is generating substantial profits. There remains a need for more cost-effective methods to process zinc ores. There are large amounts of material containing valuable percentages of zinc, but current conditions make it unprofitable to mine and treat. Should a groundbreaking development in the metallurgy of zinc arise, it would open up an entirely new perspective for the zinc-mining regions. The Leadville District holds significant reserves of this material that are being kept until they can qualify as "ore."

Florence Mine and Mill, Goldfield, Nevada.

Florence Mine and Mill, Goldfield, Nevada.

Florence Mine and Mill, Goldfield, Nevada.

Florence Mine and Mill, Goldfield, Nevada.

XXII
THE MEN OF THE FUTURE
IN MINING.

The mining of the future will probably be largely in the hands of young men. To arrive at any conclusions concerning the probabilities of success, therefore, we are obliged to recognize the dual conditions. In other words, there is to be an interdependence between men and mining. Up to this point in our discussion, we have dwelt upon the probabilities as viewed from the standpoints of natural resources and of human capability. In a certain degree, we have already covered the ground of this present chapter; and yet there are some points that must be given special consideration.

The mining of the future will likely be mostly in the hands of young men. To draw any conclusions about the chances of success, we need to acknowledge the two key factors involved. In other words, there will be a dependence between people and mining. So far in our discussion, we’ve focused on the probabilities from the perspectives of natural resources and human potential. To some extent, we’ve already addressed the topics in this chapter; however, there are still some important points that need special attention.

What is the true status of metal mining? Alarmists would have us believe that civilization is rapidly exhausting the world's reserves of available metals. Conservative investigation, however, repudiates such notions. The best that can be [203] claimed for the reliability of such disconcerting statements is that they may apply in some districts, to some grades of some kinds of desirable mineral matter.

What’s the real situation with metal mining? Some people want us to think that society is quickly using up the world’s metal reserves. However, a closer look at the facts contradicts these ideas. The most we can say about the truth of these worrying statements is that they might be true in certain areas, for certain qualities of certain types of valuable minerals. [203]

It may be true that the early miners have removed the "cream" from Nature's deposits in some districts, in the sense that they have skimmed off, as it were, the rich surface portions. But this does not signify the exhaustion of deeper ore bodies, nor does it mean that the pioneers were the only capable prospectors.

It might be true that the early miners took the "cream" from Nature's deposits in some areas, in the sense that they skimmed off the rich surface layers. However, this doesn't mean that the deeper ore bodies are depleted, nor does it imply that the pioneers were the only skilled prospectors.

Why should we have any reason to deny the ability of present or future generations to find just as good mineral deposits as did our predecessors? Persons in some of the older of the western mining states—as for instance, Colorado or California—are apt to carry a misconception along this line. They can see a number of idle "camps" that are mere relics of former thriving mining communities and they are liable to jump to the conclusion that the day of mining at such places is past, forever. However, as we look at the subject in a more rational light, we shall see that there is no more authority [204] for such an assumption than there is for one to the effect that a farm in the wintertime is a worthless proposition simply because, temporarily, it is not producing its customary summer yield. Just as Nature brings about changing conditions for the farmer, so will economic forces establish varying degrees of attractiveness to the miner.

Why should we think that current or future generations won’t find mineral deposits just as good as those our predecessors found? People in some of the older western mining states—like Colorado or California—often hold a mistaken belief about this. They see many abandoned "camps" that are just reminders of once-thriving mining towns and quickly conclude that mining in those places is over for good. However, if we take a more rational view, we’ll realize that there’s as little basis for that assumption as there is for saying that a farm in winter is useless just because it isn’t producing its usual summer yield. Just as Nature changes conditions for farmers, economic forces will create different levels of opportunity for miners.

It is unfair to judge one of the pioneer mining districts by its activity at the present time, if the productiveness happens to be small. Let us look for the reasons of the apparent decline. The chances are that the inactivity will be shown to be due, not to an exhaustion of ore bodies, but to some needed changes in mining or metallurgical methods. Very likely, under a readjustment of our notions about that particular district there will appear to be as great latent possibilities as ever cheered the earlier operators. The prospects may appear to be even better than this, and the future may appear to extend greater opportunities than were ever manifested in the past. Investigation may disclose great bodies [205] of ore that could not be seriously considered in the earlier working of the region. In fact, speaking technically, the stuff in question was not ore at the time of previous operations, for it could not then be made to yield a profit. And yet, by introducing some changes in equipment or methods of working or treatment, there may be possibilities of making a great deal of money from an abandoned property; and the chances are good that this same profit may be won at a much more rapid rate than was ever before possible and that therefore the economic conditions are enhanced. For we must not lose sight of the fact that the greatest profits in mining usually accrue from the most rapid exhaustion of the ore bodies.

It’s not fair to judge one of the early mining districts based on its current activity if its output is low. Let’s explore the reasons behind this seeming decline. It’s likely that the inactivity is not due to running out of ore but rather because of needed changes in mining or metallurgical methods. With a shift in how we view that particular district, we might discover as many hidden opportunities as those enjoyed by earlier miners. The outlook might even seem more promising now, with greater future possibilities than ever seen in the past. Research may reveal large amounts of ore that weren’t considered seriously during the initial workings of the area. In fact, from a technical standpoint, what was previously considered wasn't ore because it couldn’t generate a profit back then. However, by updating equipment or methods, there could be a chance to make a significant profit from a previously abandoned site; and it’s quite possible that this profit could come in much quicker than before, thus improving the economic conditions. We must remember that the biggest profits in mining often come from the fastest depletion of ore bodies.

A mine, or even a whole district, may have been deserted because of failure on the part of original miners to recognize the value of certain minerals. The recent revival of activity that has been noted in Leadville mining circles is but an instance in point. In this district, miners have given a delayed recognition to some important minerals of zinc, and [206] the indications are that Leadville has entered upon another of its eras of mining activity.

A mine, or even an entire area, may have been abandoned because the original miners didn't realize the value of certain minerals. The recent resurgence of activity in Leadville's mining community is just one example of this. In this area, miners have finally recognized the importance of some key zinc minerals, and [206] the signs suggest that Leadville is entering another phase of mining activity.

But, it is not necessary to restrict our thoughts to the old mining regions, for if we can observe how easy it has been to overlook valuable deposits in a country that has been subjected to severe mining work, for years and years, what must we conclude concerning the possibilities of the many and vast undeveloped areas in remote portions of the globe? It would seem that there is indeed very small cause for alarm about the exhaustion of the earth's metals.

But we don't have to limit our thoughts to the old mining areas. If we can see how easy it has been to miss valuable resources in a country that has undergone extensive mining for many years, what can we conclude about the potential of the numerous and vast undeveloped regions in far-off parts of the world? It seems there is hardly any reason to be concerned about running out of the earth's metals.

No, it can be shown that mining, which is one of the very fundamental industries of the world and the one upon which every other form of commercialism rests, will be carried on with a continual increase in magnitude just as long as man exists. As the richer and more easily mined ore reserves of Nature are exhausted, improved and cheaper methods of mining, transportation, and treatment will be introduced and at a pace that will equalize this exhaustion. We, of the present generation, [207] see the eminently successful handling of copper ores of grades so low that they were not given passing consideration ten years ago. The outlook would appear to be that the improvements in methods and costs will not only keep abreast of needs in such matters, but the probabilities are that they will take a very marked lead, with the result of a continually increasing scope to the mining industry. Let us then entertain optimistic views about the future of mining.

No, it can be shown that mining, which is one of the most essential industries in the world and the foundation for every other form of trade, will continue to grow as long as humanity exists. As the more accessible and richer ore deposits are depleted, new and cheaper methods of mining, transportation, and processing will be developed, keeping pace with this depletion. We, in this generation, [207] see the incredibly successful extraction of copper ores that were considered too low-grade for any attention just a decade ago. The outlook seems to suggest that advancements in methods and costs will not only meet current demands but will likely surpass them significantly, leading to a continually expanding mining industry. So, let’s maintain an optimistic perspective on the future of mining.

Now, as to the future of the young man who engages in mining there is just as much to be said as there is concerning the career of a young man in any other line of business. This word "business" is used advisedly, for the day is past when any person has a right to say that mining is anything but strictly legitimate business.

Now, regarding the future of a young man who gets into mining, there’s just as much to discuss as there is about the career of a young man in any other field. The term "business" is used intentionally, because the time has passed when anyone can claim that mining is anything less than a completely legitimate business.

We look to the young men of the present and future to correct all of the shortcomings that have hindered the establishment of mining upon its deserved plane of stability in the minds of the general public. Young blood will take a lead in [208] the dissemination of the correct thoughts about mining.

We rely on the young men of today and tomorrow to fix all the issues that have prevented mining from achieving the stability it deserves in the eyes of the public. The new generation will lead the way in [208] sharing the right ideas about mining.

The successful man in mining will be, as heretofore, the one with the right qualifications in his make-up. Is a college education an essential prerequisite to success in mining? No, the writer is not one to declare that young men cannot succeed in the business without college training. However, there can be no avoidance of the proposition that the chances of the college-trained man are better than are those of the man who has not had the benefits of such a career.

The successful person in mining will still be, as before, the one with the right qualifications. Is a college education a must-have for success in mining? No, I'm not saying that young people can't succeed in the industry without a college degree. However, it's hard to ignore the fact that the opportunities for someone with a college background are better than for someone who hasn't had that advantage.

A man may be said to engage in mining in three different ways. Thus, he may operate mining property; or he may perform any of the manifold lines of mining engineering; or he may be an investor in mining property or mining stocks.

A man can be involved in mining in three different ways. He can own and operate mining properties; he can work in various fields of mining engineering; or he can invest in mining properties or mining stocks.

To prove a success when enrolled in either of the first two classes, there is no denying the advantages of technical, mining education. The successful investor likewise will do well to make a consistent study of mining economics, and the [209] more attention he gives to the many phases of approved modern mining, the greater will be his ultimate achievement, financially. Just as education along usual school branches is of immeasurable benefit to any man of business, so is it to the mining man. And in just as great ratio is the possession of innate business ability.

To ensure success when enrolled in either of the first two classes, the benefits of technical mining education are undeniable. The successful investor will also benefit from consistently studying mining economics, and the more attention he pays to the various aspects of modern approved mining, the greater his financial success will be. Just as education in traditional subjects is incredibly valuable for anyone in business, it is equally important for those in mining. Likewise, having natural business talent plays a significant role in this success.

Education and natural ability are the two elements that will count in the future of any young man in mining.

Education and natural talent are the two key factors that will matter in the future for any young person in mining.

Space might be devoted to the discussion of the possibilities of young men in the field of research work along scientific lines that would add materially to the economy and scope of mining. Such a career offers inducements looking to the achievement of honor as well as fortune. The field for such service is ready. [210]

Space can be dedicated to discussing the potential of young men in research work based on scientific methods that would significantly enhance the economy and scope of mining. This career path offers incentives for achieving both honor and wealth. The opportunities for such contributions are available. [210]

XXIII
MISCELLANEOUS CONSIDERATIONS.

There are regions producing ores that are too refractory for the simple treatments that might be given by company plants located at the mines. There are districts that have many small gold and silver mines with ores that do not yield to simple milling processes and which must therefore be shipped to custom smelteries. Even were the ores amenable to milling of some sort, it is often the case that the mines are not of sufficient magnitude to warrant the maintenance of their own treatment plants.

There are areas that produce ores that are too hard for the basic treatments offered by company plants at the mines. There are also regions with numerous small gold and silver mines that have ores that don’t easily process with simple milling methods, so they need to be sent to custom smelters. Even if the ores could be milled in some way, it's often the case that the mines aren’t large enough to justify having their own treatment plants.

Under proper trade and commercial conditions, there is no impropriety in shipping ore to a custom plant or in selling it outright to a company owning such a plant. But, contemporaneously with much of the mining in the West, there has been such a monopoly on ore treatment that great injustice has been [211] wrought to the shippers of small lots of ore. Not only has this accusation been true of smelting concerns but also of milling companies. Once in a while representatives of such corporations will arise and attempt to refute these statements, but the evidence is overwhelmingly against them, and their arguments of being benefactors of the miner fall flat.

Under normal trade and business conditions, there's nothing wrong with shipping ore to a processing plant or selling it directly to a company that owns such a plant. However, along with much of the mining in the West, there has been such a monopoly on ore processing that significant injustice has been done to shippers of small quantities of ore. This complaint has been valid not just for smelting companies but also for milling companies. Occasionally, representatives from these corporations will come forward and try to contradict these claims, but the evidence overwhelmingly supports the shippers, and their arguments of being supporters of the miners fall short.

By consolidation of companies and the elimination of competition, arrogant methods and unreasonable charges have been put into force; and the managers of mines have been obliged to accept whatever rates the monopolists saw fit to charge for treatment and whatever arbitrary prices they cared to pay for the metallic contents of the shipped ores. Very gross extortion has been practised and even yet there are many mining camps which are so absolutely under the control of these concerns that properties which should pay well, under just and favorable conditions, are forced to remain idle. These conditions could not be expected to prevail forever, and the time [212] is now at hand when the extortionate smelting and milling trusts are meeting with pronounced opposition and a greatly diminished business. The state of Utah has demonstrated the ability of ore producers to bring the oppressors to time and the mine owners of that state are in a much more favored position right now than are the miners of Colorado, for instance, who really have been the greater sufferers. The Utah mining men have benefited by the sad experiences of the miners of the sister state. In Colorado, the American Smelting and Refining Co. has been a domineering factor in the mining industry for years, and the decrease of mining in Colorado has been contemporaneous with the oppression of this great corporation. The real cheating that has been practised by the ore-buying and ore-treating companies is well understood by all mining men who have been within their clutches.

By merging companies and getting rid of competition, arrogant practices and unreasonable fees have taken hold. Mine managers have had no choice but to accept whatever rates the monopolists decided to charge for treatment and whatever arbitrary prices they chose to pay for the metallic contents of the shipped ores. There has been severe extortion, and even now, many mining camps are completely controlled by these companies, leaving properties that should be profitable under fair and favorable conditions forced to stay idle. These conditions can't be expected to last forever, and the time [212] has come when the exploitative smelting and milling trusts are facing strong opposition and a significant drop in business. The state of Utah has shown that ore producers can hold the oppressors accountable, and mine owners in Utah are currently in a much better position than the miners in Colorado, for example, who have really suffered more. The mining men in Utah have learned from the unfortunate experiences of their counterparts in Colorado. In Colorado, the American Smelting and Refining Co. has dominated the mining industry for years, and the decline of mining in Colorado has coincided with the oppression from this large corporation. The real cheating being done by the ore-buying and ore-treating companies is well known among all mining men who have been caught in their grasp.

It seems to be a fact that every tyrant eventually proves his own undoing. In the case of the oppressive smelter trust, the greed resulted in an immense income [213] for the time being; but as mines were obliged to close down because of the unjust charges imposed for handling the ores, the quantities of ore handled continued to diminish. During the past few years when mining has been so unusually dull in many of the western mining camps, it has been very difficult for the smelting company to secure enough ore to keep running, and the present outlook is not encouraging. Statistics will show that the production of the metals is not really so low as the decrease in tonnages would seem to indicate, and the discrepancy is accounted for in the fact that very many mining companies have installed their own plants for either actually recovering their metals or for reducing their bulk of ores by concentration before shipping to the custom treatment plants. Thus the smelting company may still be turning out a large amount of metallic lead, for example, but it is smelted from concentrates instead of from crude ore and the tonnage, the principal basis for estimating smelting charges, is very much less than was formerly handled in obtaining [214] the same amount of the same sort of product. The investigations started by the oppressed ones in their efforts to evade the oppressor have led to wonderful results, and it is no longer necessary for the miner to depend upon the smelter.

It seems to be true that every tyrant eventually brings about their own downfall. In the case of the oppressive smelter trust, their greed led to massive profits [213] for a while; however, as mines were forced to shut down due to unfair fees for processing the ores, the amount of ore processed started to decline. Over the last few years, when mining activity has been unusually slow in many western mining camps, the smelting company has struggled to secure enough ore to keep operating, and the current outlook isn’t promising. Statistics will show that metal production isn’t as low as the drop in tonnages might suggest, and this difference is because many mining companies have set up their own facilities to either recover their metals or to concentrate their ores before sending them to custom treatment plants. As a result, the smelting company might still be producing a significant amount of metallic lead, for instance, but it's derived from concentrates rather than raw ore, and the tonnage, which is the main basis for calculating smelting fees, is much lower than what was previously processed to obtain [214] the same quantity of the same type of product. The efforts initiated by those who were oppressed in their attempts to escape the oppressor have led to remarkable results, and miners no longer need to rely on the smelter.

Some similar sharp practice against the mining fraternity was attempted and for a short time successfully carried on by what was termed, in Colorado, the milling trust. This concern handled the ores from Cripple Creek, principally. The larger mining companies soon began the erection of their individual plants and the practice has been extending until it is now common for Cripple Creek mines to own and operate their own reduction works, much on the order of the practice in the Transvaal country.

Some similar unethical practices against the mining community were attempted and briefly succeeded by what was known as the milling trust in Colorado. This organization mainly dealt with the ores from Cripple Creek. The larger mining companies soon started building their own plants, and this trend has continued until it is now normal for Cripple Creek mines to own and operate their own reduction facilities, much like the practice in the Transvaal region.

As a final word in this discussion, the author wishes to reiterate his belief in the legitimacy of investment in mines and mining stocks. When mining is placed upon sound business principles and every detail of the work is carried on with strict attention to sound economy, there can be few failures. This means that business [215] judgment and expert advice must be used from the very start—in other words, that no false starts must be permitted. Then, after getting under way in a worthy enterprise, the successful mine operator will exercise just as close scrutiny of every operation, method, and employee as do the men who conduct other successful lines of business.

As a final note in this discussion, the author wants to emphasize his belief in the legitimacy of investing in mines and mining stocks. When mining operations are built on solid business principles and every aspect of the work is managed with careful attention to efficiency, there are usually few failures. This means that sound business judgment and expert advice must be utilized from the very beginning—in other words, no false starts should be allowed. After launching a worthwhile venture, a successful mine operator will closely monitor every operation, method, and employee just like those who run other successful businesses. [215]

This little work has been prepared primarily for the perusal of men and women who are not personally acquainted with details of mining, but who entertain notions of becoming financially interested. It is hoped that the simple descriptions of some of the elementary details will prove of use to a great many persons.

This short piece has been created mainly for men and women who don’t have personal experience with mining but are considering investing in it. It’s hoped that the straightforward explanations of some basic details will be helpful to many people.

 

Capitalization and Dividends of North American Metal Mines.

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Company |
|
State or Country |
|
Metals Produced |
|
Capitalization |
|
Par Value per Share |
|
Dividends to Jan.1, 1912
  |
|
  |
|
  |
|
  |
|
  |
|
 
Alaska-Mexican | Alaska | gold | $1,000,000 | $5 | $2,634,381
Alaska-Treadwell | Alaska | gold | 5,000,000 | 25 | 11,385,000
Amalgamated | Montana | copper | 155,000,000 | 100 | 63,579,315
Anaconda | Montana | copper | 30,000,000 | 25 | 47,70,000
Arizona | Arizona | copper | 3,669,300 | 1.20 | 14,373,550
Baltic | Michigan | copper | 2,500,000 | 25 | 6,050,000
Boston & Montana Cons. | Montana | copper | 3,750,000 | 25 | 62,425,000
Bullion-Bek & Champion | Utah | silver, gold | 1,000,000 | 10 | 2,738,400
Bunker Hill & Sullivan | Idaho | silver, lead | 3,000,000 | 10 | 12,211,350
Butte Coalition | Montana | copper | 15,000,000 | 15 | 2,450,000
Calumet & Arizona | Arizona | copper | 2,500,000 | 10 | 11,500,000
Calumet & Hecla | Michigan | copper | 2,500,000 | 25 | 112,750,000
Camp Bird | Colorado | gold | 5,387,000 | 5 | 6,541,960
Centennial-Eureka | Utah | gold, silver | 5,000,000 | 25 | 2,700,000
Champion | Michigan | copper | 2,500,000 | 25 | 5,700,000
Colorado | Utah | silver, lead | 200,000 | 0.20 | 2,270,000
Copper Range Con. | Michigan | copper | 40,000,000 | 100 | 10,751,180
Crown Reserve | Ontario | silver | 2,000,000 | 1 | 2,387,898
Daly | Utah | gold, lead, silver | 3,000,000 | 20 | 2,925,000
Daly-West | Utah | gold, lead, silver | 3,600,000 | 20 | 6,201,000
DeLamar | Idaho | gold, silver | 400,000 | 5 | 2,737,520
Doe Run | Missouri | lead | 10,000,000 | 100 | 2,448,478
Elkton Con. | Colorado | gold | 3,000,000 | 1 | 2,666,959
El Oro | Mexico | gold, silver | 5,750,000 | 5 | 12,426,590
Federal | Idaho | silver, lead | 30,000,000 | 100 | 8,300,000
Gemini-Keystone | Utah | gold, silver | 500,000 | 100 | 2,000,000
Goldfield Con. | Nevada | gold, silver | 50,000,000 | 10 | 11,027,812
Granby Con. |
|
B. C. |
|
copper, gold, silver |
|
15,000,000 |
|
100 |
|
3,778,630
Greene Con. | Mexico | copper | 10,000,000 | 10 | 6,137,800
Guggenheim Exploration | Mexico | all metals | 22,000,000 | 100 | 10,151,995
Hecla | Idaho | silver, lead | 250,000 | 0.25 | 2,090,000
Hercules | Idaho | silver, lead | 1,000,000 | 1 | 3,132,000
Homestake | S. Dakota | gold | 21,840,000 | 100 | 19,955,550
Hond. Rosario | C. A. | gold | 1,500,000 | 10 | 2,955,000
Horn Silver | Utah | silver | 10,000,000 | 25 | 5,642,000
Iron Silver | Colorado | all metals | 10,000,000 | 20 | 4,250,000
Kerr Lake | Ontarion | silver | 3,000,000 | 5 | 2,430,000
La Rose Con | Ontario | silver | 7,500,000 | 5 | 2,890,912
Mammoth |
|
Utah |
|
gold, silver, copper |
|
10,000,000 |
|
25 |
|
2,220,000
Mohawk | Michigan | copper | 2,500,000 | 25 | 2,150,000
Mountain | California | copper | 6,250,000 | 25 | 4,216,250
Naica | Mexico | silver, lead | 30,000 | 300 | 3,190,000
Nevada Con | Nevada | copper | 10,000,000 | 5 | 2,400,000
Nipissing | Ontario | silver | 6,000,000 | 5 | 5,490,000
North Butte |
|
Montana |
|
copper, gold, silver |
|
9,000,000 |
|
15 |
|
9,040,000
North Star | California | gold | 2,500,000 | 10 | 2,786,988
Ontario | Utah | silver, lead | 5,000,000 | 100 | 14,962,500
Osceola | Michigan | copper | 2,500,000 | 25 | 8,958,650
Panuco | Mexico | gold, silver | 2,000,000 |   | 7,465,000
Parrot | Montana | copper | 2,300,000 | 10 | 6,991,138
Penoles | Mexico | silver, gold | 2,000,000 | 50 | 4,741,687
Phelps, Dodge & Co | U. S. | copper | 50,000,000 | 100 | 8,766,747
Plumas, Eureka | California | gold | 1,406,250 | 10 | 2,831,294
Portland | Colorado | gold | 3,000,000 | 1 | 8,677,080
Quincy | Michigan | copper | 3,750,000 | 25 | 19,330,000
Richmond | Nevada | gold, silver, lead | 1,350,000 | 1 | 4,453,797
San Rafael | Mexico | gold, silver | 60,000 | 25 | 3,218,338
Sta. Gertrudis | Mexico | gold, silver | 3,000,000 |   | 3,960,000
Sta. Maria del Paz | Mexico | gold,silver | 120,000 | 12.50 | 5,568,000
St. Joseph | Missouri | lead | 20,000,000 | 10 | 7,208,357
Silver King Coalition | Utah | silver | 6,250,000 | 5 | 12,522,385
Smuggler | Colorado | silver, lead, zinc | 1,000,000 | 1 | 2,235,000
Standard Con | California | golod, silver | 2,000,000 | 1 | 5,194,130
Stratton's Ind | Colorado | gold | 5,500,000 | 5 | 5,028,568
Strong | Colorado | gold | 1,000,000 | 1 | 2,275,000
Tamarack | Michigan | copper | 1,500,000 | 25 | 9,420,000
Tennessee | Tennessee | copper | 5,000,000 | 25 | 2,056,250
Tomboy | Colorado | gold, silver | 1,500,000 | 5 | 2,561,000
Tonopah | Nevada | gold, silver | 1,000,000 | 1 | 6,450,000
United | Montana | copper | 50,000,000 | 100 | 7,625,000
United Verde | Arizona | copper | 3,000,000 | 10 | 26,722,000
Utah Copper | Utah | copper | 15,268,000 | 10 | 5,629,785
Utah Con | Utah | copper | 1,500,000 | 5 | 6,900,000
Vindicator Con | Colorado | gold | 1,500,000 | 1 | 2,227,500
Wolverine | Michigan | copper | 1,500,000 | 25 | 6,300,000

—————————————————————————————————

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INDEX

Accidents, 104
Adit, advantages of, 97, 100, 101, 104
Adit, defined, 95
Ajax mine, 200
Alaska, 8, 44, 67, 123
Amortization, 151
Anaconda mine, 44, 119
Arizona, 77
Australia, 26, 125

Bancroft, Geo., 160
Bankets, 116
Bassick mine, 112
Batea, 64
Bingham Cañon Dist., 73
Black Hills, 33, 74
Blanket vein, 111
Brazil placers, 8, 67
Buried placers, 61
Butte District, 44, 183

Cages, 102
California mining, 26, 31, 42, 61, 67
Camp Bird mine, 33, 121
Canadian mining claims, 54, 55
Capitalization, 140, 216
Charleton, A. G., 16
Chimneys, 112
Churn drilling, 65
Climatic influences, 83
Coal mining, 20, 23
Coal washing, 17
Colorado Fuel & Iron Co., 183
Colorado lode claims, 52
Comstock lode, 43, 91, 99
Concentration, 13, 156
Consulting engineer, 165
Copper mining, 24, 43, 73
Copper, price of, 175
Cornwall, 25, 122
Cost of patenting claims, 58
Cradle, 64
Cripple Creek District, 91, 109, 112, 125, 193, 196, 200, 214
Crosscuts, 96
Custom treatment, 210

Dead work, 79
Dikes, 108
Directors' functions, 163
Dividends of N. Amer. mines, 216
Dry placers, 71

Egypt, 22
Ely District, 74
Esperanza mine, 125
Examination of mines, 130, 191
Exploitation, 79, 166
Extralateral rights, 53
[222]
Failures in mining, 190

Gash veins, 111
Gangue, 118
Giants, 68
Gold, price of, 170
Gold production, 30 to 38
Golden Fleece, explained, 24
Grab samples, 167
Greece, mining in, 25, 122

High-grading, 126, 195
Homestake mine, 33, 123
Hoover, H. C., 162
Hydraulicking, 68, 70

Inclines, 95, 100
Incorporation, 140
Iron ore prices, 176

Joplin District, 13, 91

Kansas coal mining, 5
Kemp, Jas. F., 18
Kentucky lead mining, 8, 85
Keweenaw Peninsula, 116
Kimberly diamond mines, 43, 112, 127

Labor considerations, 84, 85
Lead, prices of, 178
Leadville, 44, 114, 150, 201, 205
Leasing, 195
Leonard, P. A., 186
Life of a mine, 92, 150
Lode defined, 51, 109, 110
Long tom, 65
Low-grade mining, 122, 200

Machinery, 89, 154
Management, 162
Mass, defined, 113
Metallurgy, 14
Mexico, 34, 43, 125
Mexican mining claims, 55
Milling, 14
Mine accounts, 179
Mine, definition of, 4, 8, 20
Mine promotion, 134, 139, 146, 186
Mine reports, 168
Miner's licenses and certificates, 55
Miner's pan, 64
Mine sampling, 130, 167
Mine timbers, 188
Mining, defined, 20, 80
Mining engineer's functions, 164, 191
Mining plants, 105, 154, 155, 157, 160
Minnesota iron ranges, 6, 42, 72, 127
Monitors, 68
Mount Morgan mine, 6, 73

Nevada Cons. Copper Co., 6, 74
New Zealand, 61
Nickel mining, 34, 43
Nickel, price of, 174

Ore defined, 18, 19
Ore deposition, 117
Ore dressing, 14, 16
[223] Ore in sight, 131
Ore reserves, 131
Oroya-Brownhill mine, 125
Open pit mining, 72
Ophir, location, 24

Pertinencia, 56
Placer dredging, 66, 153
Placer defined, 60
Placering, 14
Platinum mining, 33
Platinum, price of, 172
Political considerations, 87
Porphyry mines, 76
Portland mine, 182, 200
Prospecting, 39
Prospects, 148
Prospect drilling, 65
Prospectuses, 186, 188

Quicksilver mining, 43
Quicksilver, price of, 178

Reddington mine, 43
Reddington, P. G., 198
Reefs, 116
Richard, R. H., 15
Rickard, T. A., 127
Riffles, 68
Robinson mine, 128
Rocker, 64
Roosevelt tunnel, 196

San Juan Region, 33, 99, 153
Secondary enrichment, 119
Secrecy in operations, 183
Shafts, 94, 98, 100
Silver, price of, 172
Silver production, 36
Skips, 102
Slope, defined, 95
Sluices, 68, 69
Sorting, 14
South Africa, 24, 33, 35, 128, 149
Spain, 122
Spurr, J. E., 120
Steam shovelling, 7, 72
Stock, defined, 112
Stratton's Independence mine, 194, 200
Stripping, 75
Sudbury district, 43
Supplies, mine, 87, 88
Surveyor-General offices, 58
Sutro tunnel, 99

Tin, price of, 173
Title to property, 81
Tonopah district, 13, 150
Topographical considerations, 82, 99
Transportation considerations, 82, 194
Transvaal, 13, 91
Treadwell mine, 44, 123
Treasury stock, 144
Treatment monopolies, 210, 214
Tungsten, price of, 174
Tunnel, defined, 94

Unionism, 85
United Verde mine, 182
[224] U. S. Bureau of Mines, 28
U. S. coal claims, 47, 48
U. S. Forestry service, 197
U. S. lode claims, 46, 51
U. S. mineral output, 32 to 37
U. S. mineral surveyors, 56, 58
U. S. placer claims, 49
U. S. Postal Dept., 138, 189
Utah Copper Co., 6, 73

Van Hise, C. R., 115
Vein, defined, 107

Wallace, J. P., 150
Wallaroo mine, 43
Wasp No. 2 mine, 74
Wildcatting, 137, 193
Williams, Percy, 191

Zinc, price of, 177

Accidents, 104
Adit, benefits of, 97, 100, 101, 104
Adit, defined, 95
Ajax mine, 200
Alaska, 8, 44, 67, 123
Amortization, 151
Anaconda mine, 44, 119
Arizona, 77
Australia, 26, 125

Bancroft, Geo., 160
Bankets, 116
Bassick mine, 112
Batea, 64
Bingham Canyon District, 73
Black Hills, 33, 74
Blanket vein, 111
Brazil placers, 8, 67
Buried placers, 61
Butte District, 44, 183

Cages, 102
California mining, 26, 31, 42, 61, 67
Camp Bird mine, 33, 121
Canadian mining claims, 54, 55
Capitalization, 140, 216
Charleton, A. G., 16
Chimneys, 112
Churn drilling, 65
Climatic influences, 83
Coal mining, 20, 23
Coal washing, 17
Colorado Fuel & Iron Co., 183
Colorado lode claims, 52
Comstock lode, 43, 91, 99
Concentration, 13, 156
Consulting engineer, 165
Copper mining, 24, 43, 73
Copper, price of, 175
Cornwall, 25, 122
Cost of patenting claims, 58
Cradle, 64
Cripple Creek District, 91, 109, 112, 125, 193, 196, 200, 214
Crosscuts, 96
Custom treatment, 210

Dead work, 79
Dikes, 108
Directors' functions, 163
Dividends of North American mines, 216
Dry placers, 71

Egypt, 22
Ely District, 74
Esperanza mine, 125
Examination of mines, 130, 191
Exploitation, 79, 166
Extralateral rights, 53
[222]
Failures in mining, 190

Gash veins, 111
Gangue, 118
Giants, 68
Gold, price of, 170
Gold production, 30 to 38
Golden Fleece, explained, 24
Grab samples, 167
Greece, mining in, 25, 122

High-grading, 126, 195
Homestake mine, 33, 123
Hoover, H. C., 162
Hydraulicking, 68, 70

Inclines, 95, 100
Incorporation, 140
Iron ore prices, 176

Joplin District, 13, 91

Kansas coal mining, 5
Kemp, Jas. F., 18
Kentucky lead mining, 8, 85
Keweenaw Peninsula, 116
Kimberly diamond mines, 43, 112, 127

Labor considerations, 84, 85
Lead, prices of, 178
Leadville, 44, 114, 150, 201, 205
Leasing, 195
Leonard, P. A., 186
Life of a mine, 92, 150
Lode defined, 51, 109, 110
Long tom, 65
Low-grade mining, 122, 200

Machinery, 89, 154
Management, 162
Mass, defined, 113
Metallurgy, 14
Mexico, 34, 43, 125
Mexican mining claims, 55
Milling, 14
Mine accounts, 179
Mine, definition of, 4, 8, 20
Mine promotion, 134, 139, 146, 186
Mine reports, 168
Miner's licenses and certificates, 55
Miner's pan, 64
Mine sampling, 130, 167
Mine timbers, 188
Mining, defined, 20, 80
Mining engineer's functions, 164, 191
Mining plants, 105, 154, 155, 157, 160
Minnesota iron ranges, 6, 42, 72, 127
Monitors, 68
Mount Morgan mine, 6, 73

Nevada Consolidated Copper Co., 6, 74
New Zealand, 61
Nickel mining, 34, 43
Nickel, price of, 174

Ore defined, 18, 19
Ore deposition, 117
Ore dressing, 14, 16
[223] Ore in sight, 131
Ore reserves, 131
Oroya-Brownhill mine, 125
Open pit mining, 72
Ophir, location, 24

Pertinencia, 56
Placer dredging, 66, 153
Placer defined, 60
Placering, 14
Platinum mining, 33
Platinum, price of, 172
Political considerations, 87
Porphyry mines, 76
Portland mine, 182, 200
Prospecting, 39
Prospects, 148
Prospect drilling, 65
Prospectuses, 186, 188

Quicksilver mining, 43
Quicksilver, price of, 178

Reddington mine, 43
Reddington, P. G., 198
Reefs, 116
Richard, R. H., 15
Rickard, T. A., 127
Riffles, 68
Robinson mine, 128
Rocker, 64
Roosevelt tunnel, 196

San Juan Region, 33, 99, 153
Secondary enrichment, 119
Secrecy in operations, 183
Shafts, 94, 98, 100
Silver, price of, 172
Silver production, 36
Skips, 102
Slope, defined, 95
Sluices, 68, 69
Sorting, 14
South Africa, 24, 33, 35, 128, 149
Spain, 122
Spurr, J. E., 120
Steam shoveling, 7, 72
Stock, defined, 112
Stratton's Independence mine, 194, 200
Stripping, 75
Sudbury district, 43
Supplies, mine, 87, 88
Surveyor-General offices, 58
Sutro tunnel, 99

Tin, price of, 173
Title to property, 81
Tonopah district, 13, 150
Topographical considerations, 82, 99
Transportation considerations, 82, 194
Transvaal, 13, 91
Treadwell mine, 44, 123
Treasury stock, 144
Treatment monopolies, 210, 214
Tungsten, price of, 174
Tunnel, defined, 94

Unionism, 85
United Verde mine, 182
[224] U.S. Bureau of Mines, 28
U.S. coal claims, 47, 48
U.S. Forestry service, 197
U.S. lode claims, 46, 51
U.S. mineral output, 32 to 37
U.S. mineral surveyors, 56, 58
U.S. placer claims, 49
U.S. Postal Dept., 138, 189
Utah Copper Co., 6, 73

Van Hise, C. R., 115
Vein, defined, 107

Wallace, J. P., 150
Wallaroo mine, 43
Wasp No. 2 mine, 74
Wildcatting, 137, 193
Williams, Percy, 191

Zinc, price of, 177




        
        
    
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